mhurhangee/ep-ind-claims huggingface dataset:
A watercraft having a hull, an introduction installation for an object to be anchored in the water, said introduction installation being disposed on said hull, and at least one compressor having at least one compressed-air line which leads into the water and is coupled to at least one compressed-air distribution installation which has a horizontal extent and for generating a bubble curtain below the hull has a multiplicity of mutually spaced apart outflow openings, characterized in that the hull has at least two sub-hulls (11, 12) which are disposed so as to be mutually spaced apart and connected to one another, between the sub-hulls (11, 12) a void is situated in which a first compressed-air distribution installation is disposed, disposed and arranged in a way to create a bubble curtain surrounding the void at least partially and as well the introduction installation or the object to be introduced into the underwater bed, respectively, circumferentially and wherein a second compressed-air distribution installation is arranged, extending about the external circumference of the hull.
Method for determining the sex of at least one embryo in a bird's egg, in which the sex of the embryo is determined by at least one determination method which is noninvasive at least in relation to the egg, where, by means of the noninvasive determination method at least one estradiol value which characterizes the concentration of estradiol in the egg is determined and the sex being determined as a function of the estradiol value, characterized in that the shift of hydrogen atoms and/or carbon atoms in the egg is determined by means of the noninvasive determination method and the estradiol value is determined as a function of the shift which has been determined.
A method for mounting facade elements (12,12b-c) on a multi-storey building by means of a profile system comprising a first type of vertical profile having a first portion which is arranged to be placed facing the building, a second portion, which is arranged to be placed facing away from the building and slots (4a-b) arranged between the first and second potion on each side of the vertical profile and extending along the longitudinal axis of the profile, and a part of the first profile being designed to receive and support a second type of vertical profile; and the second type of vertical profile arranged to support a first facade element, and the second type of profile is provided with a groove extending along the longitudinal axis of the profile and designed to receive and support an edge of a second facade element, wherein the method comprises: a) mounting two vertical profiles (1a-b) of the first type at a second floor of the building so that the slots (4a-b) are facing each other, and above profiles (1c-d) of the first and second type previously mounted on a first floor, and so that the longitudinal axes of the profiles are aligned, b) transporting a facade element in a vertical direction guided by the grooves of the second type of profiles mounted on the first floor until it reaches the vertical profiles mounted on the second floor, c) entering the facade element into the slots (4a-b) of the first type of vertical profiles mounted on the second floor, d) continuing transporting the facade element in the vertical direction guided by the slots (4a-b) of the first type of vertical profiles mounted on the second floor until it reaches a mounting position, e) pushing the facade element to an inner part of the slots (4a-b).and f) attaching the facade element to the building, and g) inserting vertical profiles of the second type into the part of the first profile so that the grooves are facing each other. a) mounting two vertical profiles (1a-b) of the first type at a second floor of the building so that the slots (4a-b) are facing each other, and above profiles (1c-d) of the first and second type previously mounted on a first floor, and so that the longitudinal axes of the profiles are aligned, b) transporting a facade element in a vertical direction guided by the grooves of the second type of profiles mounted on the first floor until it reaches the vertical profiles mounted on the second floor, c) entering the facade element into the slots (4a-b) of the first type of vertical profiles mounted on the second floor, d) continuing transporting the facade element in the vertical direction guided by the slots (4a-b) of the first type of vertical profiles mounted on the second floor until it reaches a mounting position, e) pushing the facade element to an inner part of the slots (4a-b).and f) attaching the facade element to the building, and g) inserting vertical profiles of the second type into the part of the first profile so that the grooves are facing each other.
A breast implant system comprising a plurality of chambers including at least one first fluid chamber and at least one second fluid chamber, said first and second fluid chambers (1, 2) being adapted for implantation in the human body with the at least one first fluid chamber forming part of a breast implant, said fluid chambers being interconnected when implanted such that fluid can be exchanged between the first and second fluid chambers (1, 2) so as to change their respective fluid content, wherein at least one of said at least one second fluid chamber is adapted to forming part of the breast implant along with said at least one first fluid chamber, characterized in that the breast implant has a variable volume and shape, but a constant mass.
A method for controlling processing of commands at a graphics processor comprising: receiving input data and generating a command for processing at the graphics processor from the input data, wherein the command will cause the graphics processor to write out at least one buffer of data to an external memory; submitting the command to a queue for later processing at the graphics processor; subsequent to submitting the command, but before the write to external memory has been completed, receiving further input data and determining in dependence on the further input data that the buffer of data does not need to be written to external memory; and signalling to the graphics processor to prevent at least a portion of the write to external memory from being performed for the command. receiving input data and generating a command for processing at the graphics processor from the input data, wherein the command will cause the graphics processor to write out at least one buffer of data to an external memory; submitting the command to a queue for later processing at the graphics processor; subsequent to submitting the command, but before the write to external memory has been completed, receiving further input data and determining in dependence on the further input data that the buffer of data does not need to be written to external memory; and signalling to the graphics processor to prevent at least a portion of the write to external memory from being performed for the command.
A light guide device comprising a base substrate having a first refractive index, upon a first surface of which are mounted one or more light sources and a first guide layer having a second refractive index that is less than or equal to the first refractive index and which comprises a light output surface, the first guide layer being arranged so as to encapsulate the one or more light sources upon the first surface, wherein the base substrate and the guide layer form a composite structure for guiding light produced by the one or more light sources over the first surface, characterised in that the light guide device further comprises a heat sink plate attached to the lower surface of the base substrate via discrete portions of thermal bonding material positioned in line with the one or more light sources and there are one or more air gaps formed between the heat sink plate and the substrate.
Automated Cardio Pulmonary Resuscitation apparatus, comprising - a chest compression actuator for exerting a force on a chest of a patient based on a drive signal, - a physiological parameter sensor for measuring at least a displacement of the chest versus time, - an actuator driver (110; 210) for supplying time-varying drive signals to the chest compression actuator in dependence of operating parameters (113, 114) of the actuator driver, the operating parameters determining a dynamic behavior of a system comprising the chest compression actuator and the chest, wherein one of the operating parameters is a desired waveform time diagram for chest compression, and an other operating parameter is a gain of a controller, and wherein the actuator driver comprises: - memory for storing the operating parameters, and - the controller for calculating a chest compression waveform time diagram based upon the measured displacement of the chest versus time, and the apparatus further comprises: - an adaptive control (108; 208) for iteratively determining a subsequent drive signal for the chest compression actuator based upon a comparison of the chest compression waveform time diagram with the desired waveform time diagram for chest compression and adjusting the stored gain, in order to converge, with each iteration, closely to the desired waveform time diagram for chest compression. - a chest compression actuator for exerting a force on a chest of a patient based on a drive signal, - a physiological parameter sensor for measuring at least a displacement of the chest versus time, - an actuator driver (110; 210) for supplying time-varying drive signals to the chest compression actuator in dependence of operating parameters (113, 114) of the actuator driver, the operating parameters determining a dynamic behavior of a system comprising the chest compression actuator and the chest, wherein one of the operating parameters is a desired waveform time diagram for chest compression, and an other operating parameter is a gain of a controller, - memory for storing the operating parameters, and - the controller for calculating a chest compression waveform time diagram based upon the measured displacement of the chest versus time, - an adaptive control (108; 208) for iteratively determining a subsequent drive signal for the chest compression actuator based upon a comparison of the chest compression waveform time diagram with the desired waveform time diagram for chest compression and adjusting the stored gain, in order to converge, with each iteration, closely to the desired waveform time diagram for chest compression.
A metal surface treatment agent that is used in a pretreatment of an electrodeposition coating of a metallic base comprising: one or more metallic elements selected from the group consisting of zirconium, titanium, and hafnium; one or more coupling agents selected from the group consisting of a silane coupling agent, a hydrolysate thereof and a polymer thereof; and an electrophilic reactive group-containing compound, wherein the electrophilic reactive group-containing compound contains a homocycle and a heterocycle in one molecule, and has the water solubility of 0.2 to 30 g/L at 20°C, the pH of the metal surface treatment agent is from 3 to 6, when a content of the metallic element by mass is represented by Wa, a content of the coupling agent by mass is represented by Wb, and a content of the electrophilic reactive group-containing compound by mass is represented by Wc, a relationship of the following formula is satisfied 1 < Wb + Wc / Wa ≦ 20 a content of the metallic element is 25 to 400 ppm by mass, a content of the coupling agent is 20 to 500 ppm by mass, and a content of the electrophilic reactive group-containing compound is 50 to 400 ppm by mass, and the electrophilic reactive group-containing compound is one or more of benzotriazole, mercaptobenzothiazole, and benzothiazole. one or more metallic elements selected from the group consisting of zirconium, titanium, and hafnium; one or more coupling agents selected from the group consisting of a silane coupling agent, a hydrolysate thereof and a polymer thereof; and an electrophilic reactive group-containing compound, wherein the electrophilic reactive group-containing compound contains a homocycle and a heterocycle in one molecule, and has the water solubility of 0.2 to 30 g/L at 20°C, the pH of the metal surface treatment agent is from 3 to 6, when a content of the metallic element by mass is represented by Wa, a content of the coupling agent by mass is represented by Wb, and a content of the electrophilic reactive group-containing compound by mass is represented by Wc, a relationship of the following formula is satisfied 1 < Wb + Wc / Wa ≦ 20 a content of the metallic element is 25 to 400 ppm by mass, a content of the coupling agent is 20 to 500 ppm by mass, and a content of the electrophilic reactive group-containing compound is 50 to 400 ppm by mass, and the electrophilic reactive group-containing compound is one or more of benzotriazole, mercaptobenzothiazole, and benzothiazole.
A method of displaying an alarm in a mobile terminal having a touch screen, the method comprising: displaying alarm time points in a first direction, alarm dates in a second direction, and at least one alarm image representing a preset alarm for a particular alarm time point and an alarm date, the alarm image being displayed at an intersection of the particular alarm time point and the alarm date; sequentially detecting a touch at the alarm image, a drag, and a drop; and displaying the alarm image at an intersection of an alarm time point and an alarm date at which the drop is detected. displaying alarm time points in a first direction, alarm dates in a second direction, and at least one alarm image representing a preset alarm for a particular alarm time point and an alarm date, the alarm image being displayed at an intersection of the particular alarm time point and the alarm date; sequentially detecting a touch at the alarm image, a drag, and a drop; and displaying the alarm image at an intersection of an alarm time point and an alarm date at which the drop is detected.
A portable medical device configurable to operate in multiple languages and comprising an automated external defibrillator, said portable medical device comprising: a controller; a memory disposed in electrical communication with the controller, the memory comprising data relating to user instructions in a plurality of languages; a case which houses the controller and memory and comprises a mount disposed on the front face of the case; a sensing element disposed adjacent the mount and in electrical communication with the controller; a connector slot disposed in the mount; a language controller; said language controller comprising: - a plaque; - a visual language indicator of a language; a controlling element having a unique identifier of the language; and - a securing mechanism operable to secure the language controller to the automated external defibrillator, wherein said securing mechanism comprises a snap connector disposed on the plaque and being configured to engage with the connector slot to connect the plaque to the mount, and wherein the controlling element is disposed on the plaque such that the sensing element senses the controlling element when the plaque is secured in the mount, and wherein the controller configures the portable medical device to operate in a first language of the plurality of languages based on the sensing element sensing the controlling element.
A charging pole mounting device, said charging pole being preferably arranged to charge an electrically powered or hybrid vehicle, said device (7; 107) comprising: (a) a foundation member configured to be installed below ground level, and (b) anchoring means by which the charging pole is mountable to the foundation member and which comprises a detachable adapter element (11; 111; 211) configured to fit the charging pole to the foundation member, characterized in that the adapter element (11; 111; 211) is mounted to the foundation member below the top edge of the foundation member. (a) a foundation member configured to be installed below ground level, and (b) anchoring means by which the charging pole is mountable to the foundation member and which comprises a detachable adapter element (11; 111; 211) configured to fit the charging pole to the foundation member,
An electrical equipment (200, 600), comprising: a cabinet comprising a plurality of walls (104, 106, 108, 206, 208, 210) disposed around a plurality of electric components, wherein the plurality of electric components comprise a conductor (124, 126, 128); at least one barrier disposed in the cabinet and spaced apart from the conductor (124, 126, 128) by a spacing distance to define a channel within the cabinet for air to flow between the barrier and the conductor (124, 126, 128), wherein a portion of the barrier is coupled to one of the plurality of walls (104, 106, 108, 206, 208, 210) of the cabinet; and a plurality of side barriers (602, 604, 606, 608) each comprising a plurality of sides (610, 612), wherein one side (610, 612) of each of the plurality of side barriers (602, 604, 606, 608) is coupled to a supporting wall and another side (610, 612) of each side barrier (602, 604, 606, 608) is coupled to the at least one barrier to define at least one compartment surrounding at least a portion of the conductor (124, 126, 128); characterized in that a ratio of the spacing distance to a measurement of a longitudinal dimension of a side (610, 612) of the at least one barrier that is facing the conductor (124, 126, 128) is greater than 0.05 and less than 0.4. a cabinet comprising a plurality of walls (104, 106, 108, 206, 208, 210) disposed around a plurality of electric components, wherein the plurality of electric components comprise a conductor (124, 126, 128); at least one barrier disposed in the cabinet and spaced apart from the conductor (124, 126, 128) by a spacing distance to define a channel within the cabinet for air to flow between the barrier and the conductor (124, 126, 128), wherein a portion of the barrier is coupled to one of the plurality of walls (104, 106, 108, 206, 208, 210) of the cabinet; and a plurality of side barriers (602, 604, 606, 608) each comprising a plurality of sides (610, 612), wherein one side (610, 612) of each of the plurality of side barriers (602, 604, 606, 608) is coupled to a supporting wall and another side (610, 612) of each side barrier (602, 604, 606, 608) is coupled to the at least one barrier to define at least one compartment surrounding at least a portion of the conductor (124, 126, 128); characterized in that a ratio of the spacing distance to a measurement of a longitudinal dimension of a side (610, 612) of the at least one barrier that is facing the conductor (124, 126, 128) is greater than 0.05 and less than 0.4.
A sliding component comprising a pair of sliding members (10, 20), at least one of the sliding members (10, 20, 201, 203, 204) being provided with: recessed portions (22, 22', 223, 224) formed in a sliding surface (11, 21) of the one of the sliding members, each of the recessed portions having a flat surface; and hollow portions (24a, 24b, 24c, 24d, 24a', 24b', 24c', 24d', 243a, 243b, 243c, 243d, 244a, 244b, 244c, 244d, 244a', 244b', 244c', 244d') formed inside the one of the sliding members so as to be disposed at a position deeper than the recessed portions in an axial direction, each of the hollow portions having a flat surface (27a, 27b, 27c, 27d, 28a, 28b, 28c, 28d), wherein a base material (20A, 20B) forming the one of the sliding members exists a1 least between the sliding surface and the hollow portions in the axial direction, the base material of the one of the sliding members between adjoining two of recessed units (25A, 25B, 251A, 251B) continuously extends in the thickness direction from the sliding surface to a surface on a side opposite to the sliding surface, characterized in that each of the recessed portions and one of the hollow portions communicate with each other through a throttle passage (26a, 26b, 26c, 26d, 261a, 261b, 26lc, 261d) which is formed by overlapping the hollow portion and the recessed portion in a view from a direction orthogonal to the sliding surface, the recessed portion and the hollow portion which are connected to each other through the throttle passage configure the recessed unit (25A, 25B, 251A, 251B). recessed portions (22, 22', 223, 224) formed in a sliding surface (11, 21) of the one of the sliding members, each of the recessed portions having a flat surface; and hollow portions (24a, 24b, 24c, 24d, 24a', 24b', 24c', 24d', 243a, 243b, 243c, 243d, 244a, 244b, 244c, 244d, 244a', 244b', 244c', 244d') formed inside the one of the sliding members so as to be disposed at a position deeper than the recessed portions in an axial direction, each of the hollow portions having a flat surface (27a, 27b, 27c, 27d, 28a, 28b, 28c, 28d), wherein a base material (20A, 20B) forming the one of the sliding members exists a1 least between the sliding surface and the hollow portions in the axial direction, the base material of the one of the sliding members between adjoining two of recessed units (25A, 25B, 251A, 251B) continuously extends in the thickness direction from the sliding surface to a surface on a side opposite to the sliding surface, characterized in that each of the recessed portions and one of the hollow portions communicate with each other through a throttle passage (26a, 26b, 26c, 26d, 261a, 261b, 26lc, 261d) which is formed by overlapping the hollow portion and the recessed portion in a view from a direction orthogonal to the sliding surface, the recessed portion and the hollow portion which are connected to each other through the throttle passage configure the recessed unit (25A, 25B, 251A, 251B).
An optical beam shaping arrangement, comprising: a collimator for receiving light from an optical source, and providing a more collimated output; and an optical plate for receiving the more collimated output, wherein the optical plate comprises a two dimensional array of lenses on an input side and a corresponding two dimensional array of lenses on the opposite output side, wherein the lenses on the input side each have a focal point at a corresponding lens on the output side, and the lenses on the output side each have a focal point at a corresponding lens on the input side, and wherein at least some of the lenses on the output side are tilted with respect to the general plane of the optical plate. a collimator for receiving light from an optical source, and providing a more collimated output; and an optical plate for receiving the more collimated output, wherein the optical plate comprises a two dimensional array of lenses on an input side and a corresponding two dimensional array of lenses on the opposite output side, wherein the lenses on the input side each have a focal point at a corresponding lens on the output side, and the lenses on the output side each have a focal point at a corresponding lens on the input side, and wherein at least some of the lenses on the output side are tilted with respect to the general plane of the optical plate.