mhurhangee/ep-ind-claims huggingface dataset:
A refrigerator comprising: a carbonated water tank to store carbonated water; a carbon dioxide cylinder to store carbon dioxide; and a carbon dioxide supply valve arranged to block or allow flow of the carbon dioxide supplied from the carbon dioxide cylinder to the carbonated water tank; and a controller arranged to produce carbonated water in the carbonated water tank, wherein the controller is arranged to supply water to the carbonated water tank and, in response to the supply of the water being completed, to supply the carbon dioxide to the carbonated water tank, wherein after the carbonated water is produced, the controller is arranged to open the carbon dioxide supply valve to resupply the carbon dioxide to the carbonated water tank when it is determined, based on temperature of the carbonated water stored in the carbonated water tank or an accumulated discharge time of the carbonated water or a discharge instruction waiting time elapsed after producing the carbonated water, that the pressure of carbon dioxide in the carbonated water tank is below a reference pressure. a carbonated water tank to store carbonated water; a carbon dioxide cylinder to store carbon dioxide; and a carbon dioxide supply valve arranged to block or allow flow of the carbon dioxide supplied from the carbon dioxide cylinder to the carbonated water tank; and a controller arranged to produce carbonated water in the carbonated water tank, wherein the controller is arranged to supply water to the carbonated water tank and, in response to the supply of the water being completed, to supply the carbon dioxide to the carbonated water tank, wherein after the carbonated water is produced, the controller is arranged to open the carbon dioxide supply valve to resupply the carbon dioxide to the carbonated water tank when it is determined, based on temperature of the carbonated water stored in the carbonated water tank or an accumulated discharge time of the carbonated water or a discharge instruction waiting time elapsed after producing the carbonated water, that the pressure of carbon dioxide in the carbonated water tank is below a reference pressure.
Endoscope with a handle and an endoscope shaft, connected to the handle, which has a bendable section and a rigid section (4, 6), adjoining it, with a support extending in the longitudinal direction of the endoscope shaft, wherein the bendable section has a flexible outer tube the end of which facing the rigid section (4, 6) rests on the support, wherein a fixing sleeve is connected to the rigid section and covers the end of the outer tube facing the rigid section (4, 6) such that said end is clamped for fixing between the fixing sleeve and the support characterized in that the fixing sleeve has a fixing area with a tapering internal diameter, the support has a first area with an external diameter increasing in the direction away from the bendable section and the support has a second area, adjoining the first area, with a decreasing external diameter in the direction away from the bendable section.
An internal antenna system comprising: a first antenna having a first antenna pattern and a first dielectric layer, the first antenna pattern being formed on the first dielectric layer; and a second antenna having a second antenna pattern and a second dielectric layer, the second antenna pattern being formed on the second dielectric layer, the second dielectric layer having a higher dielectric constant than the first dielectric layer, wherein the first antenna and the second antenna are separated by a layer of air; wherein the first and second antenna patterns (211, 221) are electrically connected to each other; wherein the first antenna and the second antenna are coupled to each other to be electromagnetically resonant; and wherein the first and second antenna patterns (211, 221) branch from a same feed point. a first antenna having a first antenna pattern and a first dielectric layer, the first antenna pattern being formed on the first dielectric layer; and a second antenna having a second antenna pattern and a second dielectric layer, the second antenna pattern being formed on the second dielectric layer, the second dielectric layer having a higher dielectric constant than the first dielectric layer,
An anti-polyphosphate antibody for use in a method of treatment of a medical condition involving extracellular polyphosphate toxicity in a subject, the method comprising administering to said subject an anti-polyphosphate antibody.
A method for storing hydrogen, comprising: providing a container comprising a predetermined substantially fixed volume capable of remaining constant to within 5% due to changes in pressure and temperature; providing a fluid mixture to said predetermined substantially fixed volume, by introducing in said predetermined substantially fixed volume a fluid storage medium, and storing hydrogen molecules within said fluid storage medium, thus cooling the fluid storage medium and increasing the hydrogen storing capacity of the fluid storage medium, until the hydrogen density of the fluid is at least 25 Kg/m 3; and providing a predetermined temperature and/or a predetermined pressure to said container so as to increase the density of said fluid mixture, wherein one or more predetermined phase(s) of said fluid mixture is capable of being withdrawn from said container and utilized as a fuel; wherein said predetermined temperature is between 50 Kelvin to 126 Kelvin; wherein said predetermined pressure is less than 34,47 MPa and wherein said fluid mixture is liquid nitrogen. providing a container comprising a predetermined substantially fixed volume capable of remaining constant to within 5% due to changes in pressure and temperature; providing a fluid mixture to said predetermined substantially fixed volume, by introducing in said predetermined substantially fixed volume a fluid storage medium, and storing hydrogen molecules within said fluid storage medium, thus cooling the fluid storage medium and increasing the hydrogen storing capacity of the fluid storage medium, until the hydrogen density of the fluid is at least 25 Kg/m 3; and providing a predetermined temperature and/or a predetermined pressure to said container so as to increase the density of said fluid mixture, wherein one or more predetermined phase(s) of said fluid mixture is capable of being withdrawn from said container and utilized as a fuel; wherein said predetermined temperature is between 50 Kelvin to 126 Kelvin; wherein said predetermined pressure is less than 34,47 MPa and wherein said fluid mixture is liquid nitrogen.
Method for producing a moulded body (1, 7, 12, 13) with a coating material comprising the process steps - producing a moulded body (1, 7, 12, 13) from a composite material comprising at least one thermoplastic polymer as base material and at least boron nitride as an inorganic filler, wherein the volume fraction of the filler is 1-50% of the volume of the moulded body (1, 7, 12, 13), - coating at least one part of the moulded body (1, 7, 12, 13) with a metal coating material by means of atmospheric plasma. - producing a moulded body (1, 7, 12, 13) from a composite material comprising at least one thermoplastic polymer as base material and at least boron nitride as an inorganic filler, wherein the volume fraction of the filler is 1-50% of the volume of the moulded body (1, 7, 12, 13), - coating at least one part of the moulded body (1, 7, 12, 13) with a metal coating material by means of atmospheric plasma.
Vehicle comprising a chassis, a cabin carried by said chassis and a stepladder, said stepladder comprising two forks (5a,5b), a first lateral support carried in a movable manner by said first fork and a second lateral support carried in a movable manner by said second fork, and at least a step carried by said first and second lateral supports (7a, 7b), said stepladder being configured to be coupled to said cabin by means of said two forks (5a, 5b), wherein the lateral supports (7a, 7b) being configured to move with respect to said forks (5a, 5b) characterized in that said stepladder comprises first actuator means (10a, 10b) configured to move said lateral supports (7a, 7b) between a first position into which said lateral supports (7a, 7b) are substantially vertical, when rescue vehicle inclination is substantially zero and a second position, inclined with respect to a vertical axis, when the rescue vehicle inclination is different from zero, said vehicle comprising an electronic unit configured to calculate a rotation angle (α) of lateral supports (7a, 7b) of a stepladder with respect to said lateral axis as a function of said inclination of the rescue vehicle said stepladder being configured to be coupled to said cabin by means of said two forks (5a, 5b), wherein the lateral supports (7a, 7b) being configured to move with respect to said forks (5a, 5b) characterized in that said stepladder comprises first actuator means (10a, 10b) configured to move said lateral supports (7a, 7b) between a first position into which said lateral supports (7a, 7b) are substantially vertical, when rescue vehicle inclination is substantially zero and a second position, inclined with respect to a vertical axis, when the rescue vehicle inclination is different from zero, said vehicle comprising an electronic unit configured to calculate a rotation angle (α) of lateral supports (7a, 7b) of a stepladder with respect to said lateral axis as a function of said inclination of the rescue vehicle
System for providing an assistant, comprising: an input/output unit configured to receive at least one invocation by a user; a natural language understanding, NLU, unit configured to determine a user's intent based on the at least one invocation, wherein if the invocation comprises further information the NLU unit is further configured to extract at least one entity from the further information of the at least one invocation; a skill unit configured to determine at least one skill of the system based on the user's intent; and a backend service unit, wherein the skill unit is connected to the backend service unit and the backend service unit comprises a context broker configured to store the at least one entity of the present and/or previous invocation as a previous context, and wherein the input/output unit is configured to perform a function based on the skill and the stored previous context, and characterised in that the backend service unit comprises a global context store and for each skill a local context store, and in that the context broker provides data to and retrieves data from the local context stores and the global context store. an input/output unit configured to receive at least one invocation by a user; a natural language understanding, NLU, unit configured to determine a user's intent based on the at least one invocation, wherein if the invocation comprises further information the NLU unit is further configured to extract at least one entity from the further information of the at least one invocation; a skill unit configured to determine at least one skill of the system based on the user's intent; and a backend service unit, wherein the skill unit is connected to the backend service unit and the backend service unit comprises a context broker configured to store the at least one entity of the present and/or previous invocation as a previous context, and wherein the input/output unit is configured to perform a function based on the skill and the stored previous context, and characterised in that the backend service unit comprises a global context store and for each skill a local context store, and in that the context broker provides data to and retrieves data from the local context stores and the global context store.
A method for the simultaneous production of two or more fiber composite components (310', 312', 314', 316'), in particular of two or more substantially identical fiber composite components, which have a component contour, said method comprising: - providing at least one fibrous material, at least one planar separation element (220, 221, 222, 224, 225, 226, 330, 332, 334), and at least one matrix material, - producing a semi-finished fibrous pack (200, 300) by disposing the fibrous material layer-by-layer so as to form semi-finished fibrous products (210-216, 310-316) stacked on top of one another, wherein at least one of the planar separation elements (220, 221, 222, 224, 225, 226, 330, 332, 334) is in each case disposed between the semi-finished fibrous products (210-216, 310-316); - infusing the semi-finished fibrous pack (200, 300) with the matrix material, characterized by - cutting the component contour into the infused semi-finished fibrous pack (200, 300) and in that the at least one planar separation element (220, 221, 222, 224, 225, 226, 330, 332, 334) at least in portions is permeable to the matrix material. - providing at least one fibrous material, at least one planar separation element (220, 221, 222, 224, 225, 226, 330, 332, 334), and at least one matrix material, - producing a semi-finished fibrous pack (200, 300) by disposing the fibrous material layer-by-layer so as to form semi-finished fibrous products (210-216, 310-316) stacked on top of one another, wherein at least one of the planar separation elements (220, 221, 222, 224, 225, 226, 330, 332, 334) is in each case disposed between the semi-finished fibrous products (210-216, 310-316); - infusing the semi-finished fibrous pack (200, 300) with the matrix material, characterized by - cutting the component contour into the infused semi-finished fibrous pack (200, 300) and in that the at least one planar separation element (220, 221, 222, 224, 225, 226, 330, 332, 334) at least in portions is permeable to the matrix material.
A method for controlling a broadcast packet sending frequency, wherein the method is applied to a terminal, the terminal being configured to: receive a broadcast packet in a broadcast receiving period and send a broadcast packet in a broadcast sending period, and the method comprising: receiving, in at least one broadcast receiving period, a broadcast packet sent by another terminal; determining, according to the broadcast packet sent by the another terminal, a channel environment parameter of an area in which the terminal is located, wherein the channel environment parameter comprises packet time density and/or a packet sending success rate; and determining a first sending frequency according to the channel environment parameter, wherein the first sending frequency is a sending frequency for sending a broadcast packet in a broadcast sending period after the at least one broadcast receiving period by the terminal, characterized by: randomly determining sending duration of the broadcast sending period after the at least one broadcast receiving period; and sending a broadcast packet according to the first sending frequency and the sending duration after the at least one broadcast receiving period ends, and configuring receiving duration of each broadcast receiving period to be greater than a reciprocal of a preset minimum sending frequency, and configuring receiving duration of a broadcast receiving period of the terminal to be equal to receiving duration of a broadcast receiving period of the another terminal. receiving, in at least one broadcast receiving period, a broadcast packet sent by another terminal; determining, according to the broadcast packet sent by the another terminal, a channel environment parameter of an area in which the terminal is located, wherein the channel environment parameter comprises packet time density and/or a packet sending success rate; and determining a first sending frequency according to the channel environment parameter, wherein the first sending frequency is a sending frequency for sending a broadcast packet in a broadcast sending period after the at least one broadcast receiving period by the terminal, characterized by: randomly determining sending duration of the broadcast sending period after the at least one broadcast receiving period; and sending a broadcast packet according to the first sending frequency and the sending duration after the at least one broadcast receiving period ends, and configuring receiving duration of each broadcast receiving period to be greater than a reciprocal of a preset minimum sending frequency, and configuring receiving duration of a broadcast receiving period of the terminal to be equal to receiving duration of a broadcast receiving period of the another terminal.
An acceleration measuring device having a support and a proof mass, connected to each other by at least two flexures allowing displacement of the proof mass relative to the support, the support defining a space for displacement of the proof mass, the device being configured so that the modulus of the gradient of the force-displacement curve of the proof mass decreases with increasing displacement, for at least the part of the force-displacement curve corresponding to a range of movement of the proof mass within the device, wherein, the resonant frequency of oscillation of the proof mass is determined at least in part by the orientation of the device relative to the direction of the force due to gravity, such that the proof mass is capable of oscillating with a resonant frequency of 10 Hz or less, characterized in that the proof mass has a mass of less than 0.1 grams, and in that the device is configured to allow the proof mass to oscillate substantially only in one plane, and wherein each flexure has a rest shape extending in a continuous arc defining a length direction of the flexure from the support to the proof mass, a width direction of the flexure is defined as a direction in the plane of oscillation of the proof mass and perpendicular to the length direction, and a depth direction of the flexure is defined as a direction perpendicular to the plane of oscillation of the proof mass and perpendicular to the length direction; and wherein at least one of (i), (ii) and (iii) applies: (i) the ratio of the depth of the flexure to the width of the flexure, on average along the length of the flexure, it at least 10:1; (ii) the width of the flexure on average along the length of the flexure, is at most 10 μm; (iii) the depth of the flexure on average along the length of the flexure, is at least 150 μm. characterized in that the proof mass has a mass of less than 0.1 grams, and in that the device is configured to allow the proof mass to oscillate substantially only in one plane, and wherein each flexure has a rest shape extending in a continuous arc defining a length direction of the flexure from the support to the proof mass, a width direction of the flexure is defined as a direction in the plane of oscillation of the proof mass and perpendicular to the length direction, and a depth direction of the flexure is defined as a direction perpendicular to the plane of oscillation of the proof mass and perpendicular to the length direction; and wherein at least one of (i), (ii) and (iii) applies: (i) the ratio of the depth of the flexure to the width of the flexure, on average along the length of the flexure, it at least 10:1; (ii) the width of the flexure on average along the length of the flexure, is at most 10 μm; (iii) the depth of the flexure on average along the length of the flexure, is at least 150 μm. (i) the ratio of the depth of the flexure to the width of the flexure, on average along the length of the flexure, it at least 10:1; (ii) the width of the flexure on average along the length of the flexure, is at most 10 μm; (iii) the depth of the flexure on average along the length of the flexure, is at least 150 μm.
A bioreactor for purifying gases comprising an active biofilm of microorganisms and equipped with a sprinkler and a control system of the circulating liquid wherein in the reactor there is a rotatably movable worm with at least two coils, characterised in that, in said coils grooves are made transverse to dextrorotatory and levorotatory to the worm axis, said grooves being covered with an active biofilm of microorganisms.
An orthopedic joint comprising an upper part (11, 11') and a lower part (12, 12') pivotably arranged on the latter, and a resistance device which is arranged between the upper part (11, 11') and the lower part (12, 12') and provides resistance against a pivoting movement of the upper part (11, 11') relative to the lower part (12, 12') about a pivot axis (14, 14'), and which has an adjustment device by means of which the resistance is adjustable, wherein the adjustment device is coupled to a control device, which is coupled to at least one sensor, such that the resistance is adjustable by means of the control device on the basis of sensor data that are transmitted from the at least one sensor to the control device, wherein the control device has stored in it a function in which the joint (13, 13') is locked against pivoting in at least one direction in accordance with the sensor data, and the function can be activated for locking and deactivated for unlocking on the basis of the sensor data, characterized in that at least one parameter for activating the function and at least one parameter for deactivating the function, which is different from the parameter for activation, are correlated with one another.
Mounting device for anchoring construction elements, such as PV systems or fall-prevention devices, on a flat roof structure and also for transmitting forces parallel to the roof which are acting upon said construction elements into said roof structure, which consists of a supporting substructure and an insulating layer which is arranged on the upper side of said supporting substructure and is covered with sealing webs, wherein the mounting device has a laminar base body for resting on the roof structure on that upper side of the sealing webs which faces away from the supporting substructure, which base body is fixed to said supporting substructure by means of at least one anchoring element, wherein said anchoring element is clamped, at its upper end that faces away from the supporting substructure, within the base body in a manner vertically displaceable in relation to the flat roof surface and is provided with a stop head which is received in a clearance on the upper side of the base body in such a way that, when the base body is subjected to pressure loading, said base body is displaceable along the anchoring element in the longitudinal direction of the latter, so that the length over which said anchoring element is clamped within the base body is maintained, and wherein the stop head remains inside the clearance, characterised in that the anchoring element has a sleeve element engaging around it, at least in the region in which it penetrates through the base body and the insulating layer.