mhurhangee/ep-ind-claims huggingface dataset:
A wearable device operable to determine an orientation of the wearable device, when placed on a body (302, 402), the wearable device comprising: - a plurality of electrode pairs (102 1, 102 2, 102 3, 102 4) located at different positions, wherein at least two of the plurality of electrode pairs (102 1, 102 2, 102 3, 102 4) are configured to receive a signal transmitted from a reference device using the body (302, 402) as a transmission medium; and - a processor configured to: - determine a property associated with the signal received at the at least two electrode pairs; - compare the determined property to a corresponding reference property, wherein the determined property is indicative of an orientation of the wearable device with respect to the reference device and the corresponding reference property is indicative of a predetermined orientation for the wearable device on the body (302, 402); and - determine, from the comparison, whether the wearable device is in the predetermined orientation on the body (302, 402). - a plurality of electrode pairs (102 1, 102 2, 102 3, 102 4) located at different positions, wherein at least two of the plurality of electrode pairs (102 1, 102 2, 102 3, 102 4) are configured to receive a signal transmitted from a reference device using the body (302, 402) as a transmission medium; and - a processor configured to: - determine a property associated with the signal received at the at least two electrode pairs; - compare the determined property to a corresponding reference property, wherein the determined property is indicative of an orientation of the wearable device with respect to the reference device and the corresponding reference property is indicative of a predetermined orientation for the wearable device on the body (302, 402); and - determine, from the comparison, whether the wearable device is in the predetermined orientation on the body (302, 402). - determine a property associated with the signal received at the at least two electrode pairs; - compare the determined property to a corresponding reference property, wherein the determined property is indicative of an orientation of the wearable device with respect to the reference device and the corresponding reference property is indicative of a predetermined orientation for the wearable device on the body (302, 402); and - determine, from the comparison, whether the wearable device is in the predetermined orientation on the body (302, 402).
A turbomachine fluid delivery system (60;60a), comprising: a first turbomachine fluid container (72;72a) for receiving a mixture of air and oil; a second turbomachine fluid container (76;76a) for receiving a mixture of air and oil; a supplied area; and a pump configured to move a flow of the turbomachine fluid (80,84) to the supplied area, the system (60; 60a) being configured such that the first (72;72a) and second (76;76a) turbomachine fluid containers together provide the flow to the pump in both a positive g-force environment and a negative g-force environment, wherein: when operating in a positive g-force environment, the first turbomachine fluid container (72;72a) is configured to provide a mixture of air and oil; and when operating in a negative g-force environment, the first turbomachine fluid container (72;72a) is configured to provide primarily oil due to the negative g-forces causing most of the air within the first container (72;72a) to separate from the oil in the first container (72;72a); characterised in that: when operating in a positive g-force environment, the second turbomachine fluid container (76;76a) is configured to provide a mixture of air and oil; and when operating in a negative g-force environment, the second turbomachine fluid container (76; 76a) is configured to provide primarily air. a first turbomachine fluid container (72;72a) for receiving a mixture of air and oil; a second turbomachine fluid container (76;76a) for receiving a mixture of air and oil; a supplied area; and a pump configured to move a flow of the turbomachine fluid (80,84) to the supplied area, the system (60; 60a) being configured such that the first (72;72a) and second (76;76a) turbomachine fluid containers together provide the flow to the pump in both a positive g-force environment and a negative g-force environment, wherein: when operating in a positive g-force environment, the first turbomachine fluid container (72;72a) is configured to provide a mixture of air and oil; and when operating in a negative g-force environment, the first turbomachine fluid container (72;72a) is configured to provide primarily oil due to the negative g-forces causing most of the air within the first container (72;72a) to separate from the oil in the first container (72;72a); when operating in a positive g-force environment, the first turbomachine fluid container (72;72a) is configured to provide a mixture of air and oil; and when operating in a negative g-force environment, the first turbomachine fluid container (72;72a) is configured to provide primarily oil due to the negative g-forces causing most of the air within the first container (72;72a) to separate from the oil in the first container (72;72a); when operating in a positive g-force environment, the second turbomachine fluid container (76;76a) is configured to provide a mixture of air and oil; and when operating in a negative g-force environment, the second turbomachine fluid container (76; 76a) is configured to provide primarily air.
A golf club head (110, 210, 310, 410, 510, 610, 710, 810, 910) comprising: a body defining an interior cavity and including a ball-striking face (112, 212, 312, 912) and a sole (114, 214, 314, 914); a wave slot (16, 116, 216, 316, 416, 516, 616, 716, 916) located on the sole (114, 214, 314, 914) and comprising a first sidewall (118, 218, 318), a second sidewall (119, 219, 319), and at least two waves (120, 222, 223, 322, 323); wherein the first sidewall (118, 218, 318) extends substantially in a first generally upward direction and is located proximate the ball-striking face (112, 212, 312, 912), and the second sidewall (119, 219, 319) extends substantially in a second generally upward direction and is located opposite to the ball-striking face (112, 212, 312, 912) when viewed from the first sidewall (118, 218, 318), wherein the first (118, 218, 318) and second (119, 219, 319) sidewalls are disposed at an acute angle to one another; wherein each wave (120, 222, 223, 322, 323) is positioned between the first (118, 218, 318) and second (119, 219, 319) sidewalls, and comprises a valley portion (121, 221) at the low point of each wave, and the first wave (222, 322) has a first height and the second wave (223, 323) has a second height, the second height being greater than the first height, and the second wave (223, 323) is located proximate the first sidewall (118, 218, 318), and the first wave (222, 322) is located proximate the second sidewall (119, 219, 319). a body defining an interior cavity and including a ball-striking face (112, 212, 312, 912) and a sole (114, 214, 314, 914); a wave slot (16, 116, 216, 316, 416, 516, 616, 716, 916) located on the sole (114, 214, 314, 914) and comprising a first sidewall (118, 218, 318), a second sidewall (119, 219, 319), and at least two waves (120, 222, 223, 322, 323); wherein the first sidewall (118, 218, 318) extends substantially in a first generally upward direction and is located proximate the ball-striking face (112, 212, 312, 912), and the second sidewall (119, 219, 319) extends substantially in a second generally upward direction and is located opposite to the ball-striking face (112, 212, 312, 912) when viewed from the first sidewall (118, 218, 318), wherein the first (118, 218, 318) and second (119, 219, 319) sidewalls are disposed at an acute angle to one another; wherein each wave (120, 222, 223, 322, 323) is positioned between the first (118, 218, 318) and second (119, 219, 319) sidewalls, and comprises a valley portion (121, 221) at the low point of each wave, and the first wave (222, 322) has a first height and the second wave (223, 323) has a second height, the second height being greater than the first height, and the second wave (223, 323) is located proximate the first sidewall (118, 218, 318), and the first wave (222, 322) is located proximate the second sidewall (119, 219, 319).
A waste container, said waste container comprising a container body and a container lid for closing the container body, said container body being arranged for separately picking up at least two waste fractions, wherein the container lid comprises at least two charging openings for waste fractions, wherein one additional lid element (18, 19, 20, 21) is provided for each charging opening and wherein the additional lid elements (18, 19, 20, 21) are mounted on the container lid characterized in that more than one additional lid element (18, 19, 20, 21), particularly that all additional lid elements are locked or can be locked via a single common locking device.
An isolation container comprising a trough having an opening and a lid for sealing the opening, wherein a) the trough has a circumferential wall with four side walls which are each oriented at right angles to one another, b) the lid and the trough are each formed from self-supporting and isolating foam or plastic parts, c) the trough and the lid can be directly connected positively and/or non-positively to one another and enclose a transport volume, d) the circumferential wall of the trough is built up in a direction X by at least one layer (6a-6c) of isolating corner pieces (71a-74c) which are each in one piece and of identical materials, characterized in that e) the corner pieces (71a-74c) are arranged in the circumferential direction U about the opening and f) each corner piece (71a-74c) has a rectangular or L-shaped basic form and can be directly connected positively and/or non-positively to the lid and/or the trough. a) the trough has a circumferential wall with four side walls which are each oriented at right angles to one another, b) the lid and the trough are each formed from self-supporting and isolating foam or plastic parts, c) the trough and the lid can be directly connected positively and/or non-positively to one another and enclose a transport volume, d) the circumferential wall of the trough is built up in a direction X by at least one layer (6a-6c) of isolating corner pieces (71a-74c) which are each in one piece and of identical materials, characterized in that e) the corner pieces (71a-74c) are arranged in the circumferential direction U about the opening and f) each corner piece (71a-74c) has a rectangular or L-shaped basic form and can be directly connected positively and/or non-positively to the lid and/or the trough.
A method, comprising: respectively transforming reference data for each of a plurality of candidate reference blocks with respect to a current block to be encoded into a respective rank number based on a context feature of said current block with respect to said context feature of each of said plurality of candidate reference blocks; determining a rank number for said current block, said rank number corresponding to a particular one of said plurality of candidate reference blocks to be actually used as a reference block to encode said current block; and entropy encoding said determined rank number for said current block, wherein said entropy encoding uses an entropy encoding scheme selected according to a probability distribution of the determined rank number for said current block. respectively transforming reference data for each of a plurality of candidate reference blocks with respect to a current block to be encoded into a respective rank number based on a context feature of said current block with respect to said context feature of each of said plurality of candidate reference blocks; determining a rank number for said current block, said rank number corresponding to a particular one of said plurality of candidate reference blocks to be actually used as a reference block to encode said current block; and entropy encoding said determined rank number for said current block, wherein said entropy encoding uses an entropy encoding scheme selected according to a probability distribution of the determined rank number for said current block.
A method, comprising: maintaining, using a processor, a predetermined number of first- priority subcarriers for use in communicating first-priority data frames and a predetermined number of second-priority subcarriers for use in communicating second-priority data frames; receiving a data frame via a network interface; determining, using the processor, a data frame priority for the data frame; when the data frame is determined to be a second-priority data frame, determining, using the processor, a minimum number of subcarriers, from the second-priority subcarriers, required for communication of the data frame and communicating the data frame using the minimum number of subcarriers; and when the data frame is determined to be a first-priority data frame determining, using the processor, the maximum number of subcarriers available, including the first-priority subcarriers and the second-priority subcarriers, for communication of the data frame and communicating the data frame using the determined maximum number of subcarriers available. maintaining, using a processor, a predetermined number of first- priority subcarriers for use in communicating first-priority data frames and a predetermined number of second-priority subcarriers for use in communicating second-priority data frames; receiving a data frame via a network interface; determining, using the processor, a data frame priority for the data frame; when the data frame is determined to be a second-priority data frame, determining, using the processor, a minimum number of subcarriers, from the second-priority subcarriers, required for communication of the data frame and communicating the data frame using the minimum number of subcarriers; and when the data frame is determined to be a first-priority data frame determining, using the processor, the maximum number of subcarriers available, including the first-priority subcarriers and the second-priority subcarriers, for communication of the data frame and communicating the data frame using the determined maximum number of subcarriers available.
A grinding unit (1;47) comprising at least - a stationary ring burr (2; 49) with an opening for receiving a rotary frustoconical burr (3;40) to delimit a grinding gap there between, which grinding gap has an outlet (32;70) for grinded matter at a base of the frustoconical burr (3;50) and an inlet for matter to be grinded at the opposite top end face (17a;52a) of the frustoconical burr, - the ring burr (2;49) has an interior wall provided with annularly spaced apart first curved teeth protruding radially into the grinding gap, and the frustoconical burr (3;50) has an annular exterior wall provided with annularly spaced apart second curved teeth (20a;20b) protruding into the grinding gap, characterised in that - the second curved teeth (20a;20b) comprise a first subset of curved teeth and a second subset of curved teeth configured so that at least a part of the curved teeth of the first subset protrudes longer into the grinding gap than the second subset of curved teeth, and so that the first subset of curved teeth and the second subset of curved teeth define axially extending grinding grooves tapering towards a base of the frustoconical burr (3;50), and a geometrical outline taken through the cusps (21;22) of the second curved teeth (20a,20b) at the top end face (17a;52a) of the frustoconical burr (3;50) opposite the base is substantially a square or a rectangle. - a stationary ring burr (2; 49) with an opening for receiving a rotary frustoconical burr (3;40) to delimit a grinding gap there between, which grinding gap has an outlet (32;70) for grinded matter at a base of the frustoconical burr (3;50) and an inlet for matter to be grinded at the opposite top end face (17a;52a) of the frustoconical burr, - the ring burr (2;49) has an interior wall provided with annularly spaced apart first curved teeth protruding radially into the grinding gap, and the frustoconical burr (3;50) has an annular exterior wall provided with annularly spaced apart second curved teeth (20a;20b) protruding into the grinding gap, characterised in that - the second curved teeth (20a;20b) comprise a first subset of curved teeth and a second subset of curved teeth configured so that at least a part of the curved teeth of the first subset protrudes longer into the grinding gap than the second subset of curved teeth, and so that the first subset of curved teeth and the second subset of curved teeth define axially extending grinding grooves tapering towards a base of the frustoconical burr (3;50), and a geometrical outline taken through the cusps (21;22) of the second curved teeth (20a,20b) at the top end face (17a;52a) of the frustoconical burr (3;50) opposite the base is substantially a square or a rectangle.
A fluid dispenser comprising: • a fluid reservoir including a neck defining an opening; and • a dispenser member, such as a pump or a valve, including a body that is held in stationary manner in the opening of the reservoir, defining an annular gap between the neck and the body; the fluid dispenser being characterized in that at least one source of radiation is disposed in the annular gap. • a fluid reservoir including a neck defining an opening; and • a dispenser member, such as a pump or a valve, including a body that is held in stationary manner in the opening of the reservoir, defining an annular gap between the neck and the body;
Composition containing pyrrolidone carboxylic acid, copper sulphate and at least one physiologically acceptable excipient, characterised in that it is formulated as a sanitizing spray wherein pyrrolidone carboxylic acid is present in an amount varying between 2 and 5% in weight with respect to the total weight of the composition, and said copper sulphate is present in an amount varying between 0.001 and 0.05% in weight with respect to the total weight of the composition.
An electrical connector device, which extends along a longitudinal axis and having an interface part comprising a first set of electrical contact elements (3a, 3b, 3c, 3d) arranged along a first line, which is orthogonal to the longitudinal axis, and mechanical engagement elements (19, 20, 21) being shaped such that the electrical connector device can be electrically and mechanically connected with an identical connector device when they are aligned along the longitudinal axis and one of them rotated 180 degrees about a transversal axis parallel with the first line, the interface part comprises a second set of electrical contact elements (4a, 4b, 4c, 4d) and a third set of electrical contact elements (5a, 5b, 5c, 5d), which second and third sets (4, 5) are symmetrically arranged on opposite sides of the first line in a first plane through the first line, such that for each contact element (4a, 4b, 4c, 4d) of the second set there is a corresponding contact element (5a, 5b, 5c, 5d) of the third set, which is arranged with equal distance to the first line, characterised in that each contact element (4a, 4b, 4c, 4d) of the second set is electrically connected to its corresponding contact element (5a, 5b, 5c, 5d) of the third set.
A distributed information storage system comprising a plurality of data storage devices (1A, 1B, 1C, 1D), data transmission devices (2A, 2B, 2C, 2D, 2E, 2F), data receiving devices (4A, 4B, 4C, 4D) and a broker configered to transfer data between the information transmission devices (2A, 2B, 2C, 2D, 2E, 2F) and the information storage devices (1A, 1B, 1C, 1D), said broker and said devices being coupled via a communication network, wherein the system is configured to conduct data communication with the data transmission devices (2A, 2B, 2C, 2D, 2E, 2F) and the data receiving devices (4A, 4B, 4C, 4D), each data storage device of the data storage devices (1A, 1B, 1C, 1D) comprising: a data acquiring unit configured to acquire data transmitted from the broker together with an identifier corresponding to a data receiving device (4A, 4B, 4C, 4D) associated with the data storage device (1A, 1B, 1C, 1D) from among data transmitted from the data transmission devices (2A, 2B, 2C, 2D, 2E, 2F), based on a first correspondence table associating identifiers indicating the data receiving devices (4A, 4B, 4C, 4D) and identifiers indicating types of data acquired by the data receiving devices (4A, 4B, 4C, 4D) and a second correspondence table indicating a correspondence between the data storage devices (1A, 1B, 1C, 1D) and the data receiving devices (4A, 4B, 4C, 4D) determined to be associated with the data storage devices (1A, 1B, 1C, 1D), the first correspondence table and the second correspondence table being shared among the data storage devices (1A, 1B, 1C, 1D); and a storage medium configured to store the acquired data. a data acquiring unit configured to acquire data transmitted from the broker together with an identifier corresponding to a data receiving device (4A, 4B, 4C, 4D) associated with the data storage device (1A, 1B, 1C, 1D) from among data transmitted from the data transmission devices (2A, 2B, 2C, 2D, 2E, 2F), based on a first correspondence table associating identifiers indicating the data receiving devices (4A, 4B, 4C, 4D) and identifiers indicating types of data acquired by the data receiving devices (4A, 4B, 4C, 4D) and a second correspondence table indicating a correspondence between the data storage devices (1A, 1B, 1C, 1D) and the data receiving devices (4A, 4B, 4C, 4D) determined to be associated with the data storage devices (1A, 1B, 1C, 1D), the first correspondence table and the second correspondence table being shared among the data storage devices (1A, 1B, 1C, 1D); and a storage medium configured to store the acquired data.