mhurhangee/patent-ind-claim-en huggingface dataset:
A residual anaerobic work capacity calculating method characterized by comprising: a step of causing a processor to obtain a heart rate; and a step of causing the processor to calculate a residual anaerobic work capacity based on the obtained heart rate and a relationship between the residual anaerobic work capacity and the heart rate, characterized in that the step of causing the processor to calculate a residual anaerobic work capacity includes a step of causing the processor to calculate a ratio of the residual anaerobic work capacity to an anaerobic work capacity based on a relation in which a relationship between the residual anaerobic work capacity and the power is standardized by the anaerobic work capacity, and the obtained heart rate. a step of causing a processor to obtain a heart rate; and a step of causing the processor to calculate a residual anaerobic work capacity based on the obtained heart rate and a relationship between the residual anaerobic work capacity and the heart rate, characterized in that the step of causing the processor to calculate a residual anaerobic work capacity includes a step of causing the processor to calculate a ratio of the residual anaerobic work capacity to an anaerobic work capacity based on a relation in which a relationship between the residual anaerobic work capacity and the power is standardized by the anaerobic work capacity, and the obtained heart rate.
A semiconductor light emitting device comprising: a semiconductor layer having a first layer including an n-type semiconductor, a second layer including a p-type semiconductor, a light emitting layer provided between the first layer and the second layer , a first surface , and a second surface (11 a) opposite to the first surface ; an n-side electrode provided on the semiconductor layer ; a p-side electrode provided on the semiconductor layer ; a third layer provided on the first surface and having light transparency; an insulating member having a lower surface, a height of the lower surface being higher than a height of the first surface , the insulating member covering a periphery of the third layer , and having light reflectivity on at least a surface of a part adjacent to a side surface of the third layer ; an n-side metal portion being in contact with the n-side electrode , and extending toward an region overlapping the insulating member ; and a p-side metal portion being in contact with the p-side electrode , and extending toward an region overlapping the insulating member , characterised in that : the n-side metal portion includes an n-side external terminal overlapping the insulating member , and in that : the p-side metal portion includes a p-side external terminal overlapping the insulating member . a semiconductor layer having a first layer including an n-type semiconductor, a second layer including a p-type semiconductor, a light emitting layer provided between the first layer and the second layer , a first surface , and a second surface (11 a) opposite to the first surface ; an n-side electrode provided on the semiconductor layer ; a p-side electrode provided on the semiconductor layer ; a third layer provided on the first surface and having light transparency; an insulating member having a lower surface, a height of the lower surface being higher than a height of the first surface , the insulating member covering a periphery of the third layer , and having light reflectivity on at least a surface of a part adjacent to a side surface of the third layer ; an n-side metal portion being in contact with the n-side electrode , and extending toward an region overlapping the insulating member ; and a p-side metal portion being in contact with the p-side electrode , and extending toward an region overlapping the insulating member , characterised in that : the n-side metal portion includes an n-side external terminal overlapping the insulating member , and in that : the p-side metal portion includes a p-side external terminal overlapping the insulating member .
A circuit for biological liquid, comprising a plurality of connectors , a network for routing liquid between said connectors , a bag comprising two flexible films and said routing network connectors , and a press comprising a first shell and a second shell clamping said bag in a state in which pipes of said liquid routing network are formed between said films , said first shell comprising for each said pipe a shaping channel , said second shell comprising for each said pipe a shaping channel facing said corresponding shaping channel of the first shell ; said first shell comprising at least one pinch valve for a said pipe , which valve comprises an actuator comprising a movable pinching member and has an open position in which the moveable member is in a retracted position in which it does not pinch said pipe as well as a closed position in which the moveable member is in an extended position in which it pinches said pipe ; said valve further comprising, in register with said moveable pinching member , an elastically compressible pad (31; 131), which pad (31; 131) has a first face adjacent the moveable member and a second face adjacent the pipe to pinch , and, when said valve is in an open position, has a resting configuration in which said second face is concave and locally delimits said first shell shaping channel of said pipe to pinch , and, when said valve is in a closed position, has a pinching configuration in which said second face is convex, with said pipe and said pad (31; 131) sandwiched between said second shell shaping channel of said pipe to pinch and said moveable pinching member ; characterized in that said pipe to pinch has a routing passage for said biological liquid which is formed by said two flexible films of said bag at a place where said films are apart from each other and by edges formed in immediate proximity of said passage and on each side of said passage delimiting the latter, which edges are formed by said films of said bag where said films meet and are sealed by a weld bead; said movable pinching member and said elastically compressible pad (31; 131) being configured such that, when said pinch valve is in a closed position and said pad (31; 131) in a pinching configuration, said routing passage of said pipe to pinch is pinched by said movable pinching member against said second shell shaping channel and said edges of said pipe to pinch are pinched flat by said movable pinching member against said second shell .
A method for producing a coil for a transformer, in particular for a medium frequency transformer for a resonant DC/DC converter (1") or a dual active bridge DC/DC converter , comprising, in the following order, the steps of: a) providing a plurality M >1 of conductive foil strips (111, 112, 111', 112', 111", 112") each having a first ending and a second ending; b) stacking the plurality of conductive foil strips to obtain a foil strip stack having a first ending and a second ending, wherein an electrically insulating layer is provided between any two adjacent conductive foil strips; c) electrically interconnecting the first endings of all conductive foil strips to a first terminal (T1, T1'); d) for each of the conductive foil strips providing a connector (T 21 , T 22 , T 21' , T 22' , T 21" , T 22" ) at the second ending of the foil strip; e) coiling up the foil strip stack from the first ending; f) providing a second terminal (T2, T2); g) providing a plurality of M impedance elements , and h) for each connector (T21, T22, T21', T22', T21", T22"), connecting a different one of said impedance elements between the connector and the second terminal. a) providing a plurality M >1 of conductive foil strips (111, 112, 111', 112', 111", 112") each having a first ending and a second ending; b) stacking the plurality of conductive foil strips to obtain a foil strip stack having a first ending and a second ending, wherein an electrically insulating layer is provided between any two adjacent conductive foil strips; c) electrically interconnecting the first endings of all conductive foil strips to a first terminal (T1, T1'); d) for each of the conductive foil strips providing a connector (T 21 , T 22 , T 21' , T 22' , T 21" , T 22" ) at the second ending of the foil strip; e) coiling up the foil strip stack from the first ending; f) providing a second terminal (T2, T2); g) providing a plurality of M impedance elements , and h) for each connector (T21, T22, T21', T22', T21", T22"), connecting a different one of said impedance elements between the connector and the second terminal.
A hermetic two-stage compressor comprising: a housing that has an oil reservoir (O1) at the bottom of housing on an inside thereof; a low-stage side compression chamber that compresses gas on the inside of the housing; a high-stage side compression chamber that is disposed above the low-stage side compression chamber and further compresses gas discharged from the low-stage side compression chamber on the inside of the housing; and an oil pot , that is provided outside the housing and that is provided with: - a pot upper lid section , - a pot lower lid section , - an upper connection pipe , connected to an upper end portion of the pot upper lid section and through which the oil pot communicates with the inside of the housing in an intermediate pressure space (MC) between the low-stage side compression chamber and the high-stage side compression chamber, and - a lower connection pipe , connected to a lower end portion of the pot lower lid section and through which the oil pot communicates with the inside of a housing at a position below the liquid surface of the oil reservoir (O1), the oil pot being configured to store oil and supply oil to the inside of the housing by the lower connection pipe. a housing that has an oil reservoir (O1) at the bottom of housing on an inside thereof; a low-stage side compression chamber that compresses gas on the inside of the housing; a high-stage side compression chamber that is disposed above the low-stage side compression chamber and further compresses gas discharged from the low-stage side compression chamber on the inside of the housing; and an oil pot , that is provided outside the housing and that is provided with: - a pot upper lid section , - a pot lower lid section , - an upper connection pipe , connected to an upper end portion of the pot upper lid section and through which the oil pot communicates with the inside of the housing in an intermediate pressure space (MC) between the low-stage side compression chamber and the high-stage side compression chamber, and - a lower connection pipe , connected to a lower end portion of the pot lower lid section and through which the oil pot communicates with the inside of a housing at a position below the liquid surface of the oil reservoir (O1), - a pot upper lid section , - a pot lower lid section , - an upper connection pipe , connected to an upper end portion of the pot upper lid section and through which the oil pot communicates with the inside of the housing in an intermediate pressure space (MC) between the low-stage side compression chamber and the high-stage side compression chamber, and - a lower connection pipe , connected to a lower end portion of the pot lower lid section and through which the oil pot communicates with the inside of a housing at a position below the liquid surface of the oil reservoir (O1),
Chassis component with a rotary damper comprising a housing , a damper shaft rotatably accommodated thereat, a displacing device in the housing , and comprising at least one magnetic field source , wherein the displacing device comprises a damper volume with magnetorheological fluid as a working fluid by means of which it can operate to influence the damping of the rotary motion of the damper shaft relative to the housing , wherein the displacing device comprises at least two partition units which subdivide the damper volume into at least two variable chambers , wherein at least one of the partition units comprises a partition wall connected with the housing , and wherein at least one of the partition units comprises a partition wall connected with the damper shaft , wherein a gap section is configured in the radial direction between the partition unit connected with the housing and the damper shaft , and wherein a gap section is configured in the radial direction between the partition unit connected with the damper shaft and the housing , and wherein at least one gap section is configured in the axial direction between the partition unit connected with the damper shaft and the housing , wherein the magnetic field source comprises at least one controllable electric coil for influencing the strength of the magnetic field and thus the strength of damping, and wherein at least a substantial part of the magnetic field of the magnetic field source passes through at least two of the indicated gap sections (25-27), and simultaneously influences at least the two gap sections in dependence on the strength of the magnetic field, characterized in that at least one of the gap sections is configured as a damping gap and at least one of the gap sections , as a sealing gap, and wherein at least one damping gap shows a larger gap height than does a sealing gap.
Sensor unit for contactless measurement of currents in power cables , in particular in data cables, wherein the sensor unit comprises a housing and a cable guide for a power cable , the cable guide being designed to receive the power cable over a length section of the power cable , and the sensor unit comprises at least one first magnetic field sensor and a second magnetic field sensor , wherein the cable guide is designed such that a first segment of the cable guide defines a first portion of the power cable with a first longitudinal direction of the power cable and the first portion of the power cable overlaps with the first magnetic field sensor in a plan view of the sensor unit, wherein the cable guide is designed such that a second segment of the cable guide defines a second portion of the power cable with a second longitudinal direction of the power cable , characterized in that the second portion of the power cable overlaps with the second magnetic field sensor in a plan view of the sensor unit, wherein the cable guide is designed such that the second longitudinal direction of the power cable deviates from the first longitudinal direction of the power cable . wherein the cable guide is designed such that a first segment of the cable guide defines a first portion of the power cable with a first longitudinal direction of the power cable and the first portion of the power cable overlaps with the first magnetic field sensor in a plan view of the sensor unit, wherein the cable guide is designed such that a second segment of the cable guide defines a second portion of the power cable with a second longitudinal direction of the power cable , characterized in that the second portion of the power cable overlaps with the second magnetic field sensor in a plan view of the sensor unit, wherein the cable guide is designed such that the second longitudinal direction of the power cable deviates from the first longitudinal direction of the power cable .
A loop-type heat pipe comprising: an evaporator configured to vaporize an operating fluid (C); a condenser configured to liquefy or condense the operating fluid (C); a liquid pipe configured to interconnect the evaporator and the condenser ; a vapor pipe configured to interconnect the evaporator and the condenser and to form a loop together with the liquid pipe ; a porous body provided in the liquid pipe and configured to retain therein the liquid operating fluid (C); and a solid columnar support provided in the liquid pipe and configured to guide the operating fluid (C) liquefied or condensed by the condenser to the porous body , characterised in that at least one first groove is formed at a side surface of the columnar support . an evaporator configured to vaporize an operating fluid (C); a condenser configured to liquefy or condense the operating fluid (C); a liquid pipe configured to interconnect the evaporator and the condenser ; a vapor pipe configured to interconnect the evaporator and the condenser and to form a loop together with the liquid pipe ; a porous body provided in the liquid pipe and configured to retain therein the liquid operating fluid (C); and a solid columnar support provided in the liquid pipe and configured to guide the operating fluid (C) liquefied or condensed by the condenser to the porous body , characterised in that at least one first groove is formed at a side surface of the columnar support .
Transportation method for the intermittent, forwards moving transportation of flexible containers held suspended in a packaging line between stop stations coinciding with work stations, comprising the use of pairs of movable arms on a same movement plane, between which a container is secured in opposite areas, one of which is a tractor arm and the other a push arm , characterized in that in a forwards moving cycle, i.e., between two consecutive stops during the transportation of a container, the method comprises the steps of: a) starting from the static position, in an acceleration stage simultaneously moving the tractor arm at a velocity v2 and the push arm at a velocity v1 forwards, thus fulfilling the mathematical relation V1 >v2 and b) in a deceleration stage simultaneously moving the tractor arm at a velocity v2 and the push arm at a velocity v1 forwards, thus fulfilling the mathematical relation V2>v1. a) starting from the static position, in an acceleration stage simultaneously moving the tractor arm at a velocity v2 and the push arm at a velocity v1 forwards, thus fulfilling the mathematical relation V1 >v2 and b) in a deceleration stage simultaneously moving the tractor arm at a velocity v2 and the push arm at a velocity v1 forwards, thus fulfilling the mathematical relation V2>v1.
A layered product comprising: a base; and a gas barrier layer stacked on the base, wherein the gas barrier layer is formed of a composition comprising a hydrolyzed condensate of a compound (L) containing a hydrolyzable group, and a neutralized product of a polymer (P) containing at least one functional group selected from the group consisting of carboxyl group and carboxylic acid anhydride group, the compound (L) comprises a compound (L 1 ) and a compound (L 2 ), the compound (L 1 ) and the compound (L 2 ) each contain a silicon atom to which the hydrolyzable group is bonded, the compound (L 1 ) contains an organic group having amino group, the compound (L 2 ) does not contain an organic group having amino group, characterized in that at least part of -COO- group in the at least one functional group contained in the polymer (P) is neutralized with a divalent or higher valent ion (E) of a metal element that has a higher electronegativity than calcium, with, when a total number of moles of the amino group in the organic group having amino group contained in the compound (L 1 ) is referred to as NA, and a total number of moles of the -COO- group in the at least one functional group contained in the polymer (P) is referred to as NC, 0.9/100 ≤ (NA/NC) ≤ 6.0/100 being satisfied. a base; and a gas barrier layer stacked on the base, wherein the gas barrier layer is formed of a composition comprising a hydrolyzed condensate of a compound (L) containing a hydrolyzable group, and a neutralized product of a polymer (P) containing at least one functional group selected from the group consisting of carboxyl group and carboxylic acid anhydride group, the compound (L) comprises a compound (L 1 ) and a compound (L 2 ), the compound (L 1 ) and the compound (L 2 ) each contain a silicon atom to which the hydrolyzable group is bonded, the compound (L 1 ) contains an organic group having amino group, the compound (L 2 ) does not contain an organic group having amino group, characterized in that at least part of -COO- group in the at least one functional group contained in the polymer (P) is neutralized with a divalent or higher valent ion (E) of a metal element that has a higher electronegativity than calcium, with, when a total number of moles of the amino group in the organic group having amino group contained in the compound (L 1 ) is referred to as NA, and a total number of moles of the -COO- group in the at least one functional group contained in the polymer (P) is referred to as NC, 0.9/100 ≤ (NA/NC) ≤ 6.0/100 being satisfied.
Wind turbine with a control cabinet, the control cabinet comprising a U-shaped base plate , consisting of a floor with two side parts , two front plates connected to the base plate , and a cover with which the control cabinet is closed, wherein the control cabinet is arranged in a rotating part of the wind turbine and is fastened thereto with at least one holder , characterised in that the front plates are each set back at a distance with respect to the an outer edge of the base plate , so that the base plate forms outwardly projecting brackets each of which is shaped flat and can be used to fasten holders, wherein the at least one holder is fastened to two or three or more of the brackets and abuts each of these with a flat bearing surface.
A user device including: - a receiver configured to receive at least one downlink signal from an access node ; - a processor configured to - measure the at least one downlink signal at two time instants; - determine if a difference of the measured at least one downlink signal at the two time instants exceeds a threshold; and - generate , when the difference exceeds the threshold, at least one uplink transmission which includes a request for a beacon transmission allocation or a beacon; and - a transmitter configured to transmit the at least one uplink transmission over an uplink random access channel, RACH, to the access node. - a receiver configured to receive at least one downlink signal from an access node ; - a processor configured to - measure the at least one downlink signal at two time instants; - determine if a difference of the measured at least one downlink signal at the two time instants exceeds a threshold; and - generate , when the difference exceeds the threshold, at least one uplink transmission which includes a request for a beacon transmission allocation or a beacon; and - measure the at least one downlink signal at two time instants; - determine if a difference of the measured at least one downlink signal at the two time instants exceeds a threshold; and - generate , when the difference exceeds the threshold, at least one uplink transmission which includes a request for a beacon transmission allocation or a beacon; and - a transmitter configured to transmit the at least one uplink transmission over an uplink random access channel, RACH, to the access node.