mhurhangee/ep-ind-claims huggingface dataset:
A device for electrically regulating the temperature of containers, in particular items of crockery for presenting food, on plate-shaped substrates, in particular table tops, wherein a transmitter coil is connected to the substrate and a receiver coil is connected to at least one bottom part of a container such that the two coils cooperate by means of inductive coupling for the electromagnetic transmission of energy to a heat-exchanging element to heat or cool the container, wherein a magnetic alternating field is generated by the transmitter coil by means of an oscillator and an alternating voltage is induced in the receiver coil, said alternating voltage being supplied via a rectifier as DC voltage to the heat exchanging element, characterized in that the energy transmission from the transmitter coil to the receiver coil takes place wirelessly over a short distance at a transmission frequency of over 100 KHz with a transmitted electrical power of between 5 and 80 watts by means of inductive coupling and in that the positioning of the container on the substrate takes place by means of magnetic detection, by arranging magnets in the bottom part of the container and in the substrate, in each case in the vicinity of the contact surfaces thereof which face one another. characterized in that the energy transmission from the transmitter coil to the receiver coil takes place wirelessly over a short distance at a transmission frequency of over 100 KHz with a transmitted electrical power of between 5 and 80 watts by means of inductive coupling and in that the positioning of the container on the substrate takes place by means of magnetic detection, by arranging magnets in the bottom part of the container and in the substrate, in each case in the vicinity of the contact surfaces thereof which face one another.
A method for use on a portable electronic wireless communication device, the method comprising: receiving, from a user, a first configuration specifying at least one content provider; receiving, from the user, a second configuration specifying at least one information content for each of the at least one content provider; storing in the device a setting for an idle screen based on the first configuration and the second configuration; retrieving, based on the setting, the at least one information content according to the second configuration through a wireless communication network from the at least one content provider specified by the first configuration; and displaying at least a portion of the user retrieved information on the idle screen. receiving, from a user, a first configuration specifying at least one content provider; receiving, from the user, a second configuration specifying at least one information content for each of the at least one content provider; storing in the device a setting for an idle screen based on the first configuration and the second configuration; retrieving, based on the setting, the at least one information content according to the second configuration through a wireless communication network from the at least one content provider specified by the first configuration; and displaying at least a portion of the user retrieved information on the idle screen.
A method for forming a vacuum insulated container, comprising: joining an inner shell and an outer shell together to form an unfinished container, wherein the unfinished container has a space between the inner shell and the outer shell; the method being characterised by the following steps: creating one or more openings in any surface of the unfinished container after the joining of the inner shell and the outer shell together to form the unfinished container; placing the entire unfinished container inside of a container holding element (300, 400); drawing a vacuum within the container holding element and around the unfinished container by lowering a pressure around the unfinished container to a desired level, and thereby pulling a vacuum through the one or more openings; and directing a laser beam through a wall (350, 420) of the container holding element and welding closed the one or more openings to seal the vacuum in the space between the inner shell and the outer shell to form a vacuum space between the inner shell and the outer shell. joining an inner shell and an outer shell together to form an unfinished container, wherein the unfinished container has a space between the inner shell and the outer shell; the method being characterised by the following steps: creating one or more openings in any surface of the unfinished container after the joining of the inner shell and the outer shell together to form the unfinished container; placing the entire unfinished container inside of a container holding element (300, 400); drawing a vacuum within the container holding element and around the unfinished container by lowering a pressure around the unfinished container to a desired level, and thereby pulling a vacuum through the one or more openings; and directing a laser beam through a wall (350, 420) of the container holding element and welding closed the one or more openings to seal the vacuum in the space between the inner shell and the outer shell to form a vacuum space between the inner shell and the outer shell. creating one or more openings in any surface of the unfinished container after the joining of the inner shell and the outer shell together to form the unfinished container; placing the entire unfinished container inside of a container holding element (300, 400); drawing a vacuum within the container holding element and around the unfinished container by lowering a pressure around the unfinished container to a desired level, and thereby pulling a vacuum through the one or more openings; and directing a laser beam through a wall (350, 420) of the container holding element and welding closed the one or more openings to seal the vacuum in the space between the inner shell and the outer shell to form a vacuum space between the inner shell and the outer shell.
A method for steering assistance in a vehicle, the method comprising; Identifying an upcoming curve; detecting an inner and an outer lane boundary of the upcoming curve; determining a safety distance as a lateral distance between said vehicle and said outer lane boundary characterized in that the safety distance is determined based on a longitudinal distance (204a-b, 306a-d) to the outer lane boundary of the curve; and controlling a position of said vehicle in said curve with respect to said outer lane boundary such that said vehicle is at a distance from said outer lane boundary which is equal to or larger than said safety distance.
A foldable terminal, comprising a body, a display screen and a flattening member; the display screen being located on a surface of the body, and the display screen comprising a bendable portion; the flattening member being located between the body and the bendable portion, and the flattening member being configured to apply a force to the bendable portion, such that the bendable portion is flattened when the foldable terminal is in a flattened state, characterized in that the flattening member comprises two sets of limit protrusions, and each set of limit protrusions comprises a first protrusion and a second protrusion; the first protrusions of the two sets of limit protrusions are respectively fixed on two sides of a center line of the bendable portion, the second protrusions of the two sets of limit protrusions are respectively fixed on the body, and the two second protrusions are located between the two first protrusions; when the foldable terminal is in the flattened state, the first protrusion and the second protrusion of each set of limit protrusions are in contact or partially in contact with each other with a force generated between the first protrusion and the second protrusion. the display screen being located on a surface of the body, and the display screen comprising a bendable portion; the flattening member being located between the body and the bendable portion, and the flattening member being configured to apply a force to the bendable portion, such that the bendable portion is flattened when the foldable terminal is in a flattened state, characterized in that the flattening member comprises two sets of limit protrusions, and each set of limit protrusions comprises a first protrusion and a second protrusion; the first protrusions of the two sets of limit protrusions are respectively fixed on two sides of a center line of the bendable portion, the second protrusions of the two sets of limit protrusions are respectively fixed on the body, and the two second protrusions are located between the two first protrusions; when the foldable terminal is in the flattened state, the first protrusion and the second protrusion of each set of limit protrusions are in contact or partially in contact with each other with a force generated between the first protrusion and the second protrusion.
A wave power generation system comprising: a hydraulic pump device configured to operate by force of a wave to discharge an operating liquid to a main passage; a hydraulic motor device configured to be rotated by the operating liquid flowing through the main passage; a power generator configured to be driven by the hydraulic motor device to generate electric power; and a heat exchanger device configured to perform heat exchange of the operating liquid, characterized in that the heat exchanger device includes a heat exchange motor device connected to the main passage through a sub passage and configured to be operated by the operating liquid introduced through the sub passage, a refrigerant pump device driven by the heat exchange motor device and configured to discharge a refrigerant liquid, and a heat exchanger to which the refrigerant liquid discharged from the refrigerant pump device and the operating liquid are introduced, the heat exchanger being configured to perform heat exchange between the refrigerant liquid and the operating liquid to cool the operating liquid. a hydraulic pump device configured to operate by force of a wave to discharge an operating liquid to a main passage; a hydraulic motor device configured to be rotated by the operating liquid flowing through the main passage; a power generator configured to be driven by the hydraulic motor device to generate electric power; and a heat exchanger device configured to perform heat exchange of the operating liquid, characterized in that the heat exchanger device includes a heat exchange motor device connected to the main passage through a sub passage and configured to be operated by the operating liquid introduced through the sub passage, a refrigerant pump device driven by the heat exchange motor device and configured to discharge a refrigerant liquid, and a heat exchanger to which the refrigerant liquid discharged from the refrigerant pump device and the operating liquid are introduced, the heat exchanger being configured to perform heat exchange between the refrigerant liquid and the operating liquid to cool the operating liquid. a heat exchange motor device connected to the main passage through a sub passage and configured to be operated by the operating liquid introduced through the sub passage, a refrigerant pump device driven by the heat exchange motor device and configured to discharge a refrigerant liquid, and a heat exchanger to which the refrigerant liquid discharged from the refrigerant pump device and the operating liquid are introduced, the heat exchanger being configured to perform heat exchange between the refrigerant liquid and the operating liquid to cool the operating liquid.
An instrument (1; 203; 204) for endoscopic applications comprising a tube like member that comprises three coaxial cylindrical members, namely an inner cylindrical member, an intermediate cylindrical member, and an outer cylindrical member; the inner cylindrical member comprising a first rigid inner member end part at a handling end portion (141; 161) of the instrument, a first flexible inner member part, an intermediate rigid inner member part, a second flexible inner member part, and a second rigid inner member end part at an actuating end portion (145; 165) of the instrument; the intermediate cylindrical member comprising a first rigid intermediate member end part at the handling end portion (141; 161) of the instrument, and a second rigid intermediate member end part at the actuating end portion (145; 165) of the instrument that is connected to the first rigid intermediate member end part via at least three longitudinal elements (38; 60; 70; 80; 90; 100; 110; 130), each of the at least three longitudinal elements (38; 60; 70; 80; 90; 100; 110; 130) being connected to both the first rigid intermediate member end part and the second rigid intermediate member end part; the outer cylindrical member comprising a first rigid outer member end part at the handling end portion of the instrument, a first flexible outer member part, an intermediate rigid outer member part, a second flexible outer member part, and a second rigid outer member end part at the actuating end portion of the instrument; the first rigid inner member end part, the first rigid intermediate member end part and the first rigid outer member end part being connected to each other, and the second rigid inner member end part, the second rigid intermediate member end part and the second rigid outer member end part being connected to each other such that the at least three longitudinal elements (38; 60; 70; 80; 90; 100; 110; 130) of the intermediate member are arranged to control a radial deflection of the handling end portion (141; 161) of the instrument by a radial deflection of the actuating end portion (145; 165) of the instrument through a movement of the at least three longitudinal elements (38; 60; 70; 80; 90; 100; 110; 130) in a longitudinal direction.
A medical device system for locating the disposition of a sensor coil in a subject, the system comprising: a. three or more triplet drive coil sets, each comprising at least three drive coils (38, 40, 42), said triplet drive coil sets placed in a two- or three-dimensional geometric array relative to each other; b. at least one sensor coil; c. a computing component for calculating the disposition of the sensor coil relative to the three or more triplet drive coil sets; characterized in that the system further comprises: d. one or more system components for: (i) sequentially driving a pair or a triplet of said drive coils within a triplet drive coil set, wherein the coils of the driven pair or triplet are driven with the same frequency; and (ii) selectively providing phase inversion of the drive signal to any one or a pair or a triplet of drive coils energizing drive coils as virtual pairs or virtual triplets, and (iii) for measuring resulting paired or triplet sensor coil signals. a. three or more triplet drive coil sets, each comprising at least three drive coils (38, 40, 42), said triplet drive coil sets placed in a two- or three-dimensional geometric array relative to each other; b. at least one sensor coil; c. a computing component for calculating the disposition of the sensor coil relative to the three or more triplet drive coil sets; d. one or more system components for: (i) sequentially driving a pair or a triplet of said drive coils within a triplet drive coil set, wherein the coils of the driven pair or triplet are driven with the same frequency; and (ii) selectively providing phase inversion of the drive signal to any one or a pair or a triplet of drive coils energizing drive coils as virtual pairs or virtual triplets, and (iii) for measuring resulting paired or triplet sensor coil signals. (i) sequentially driving a pair or a triplet of said drive coils within a triplet drive coil set, wherein the coils of the driven pair or triplet are driven with the same frequency; and (ii) selectively providing phase inversion of the drive signal to any one or a pair or a triplet of drive coils energizing drive coils as virtual pairs or virtual triplets, and (iii) for measuring resulting paired or triplet sensor coil signals.
Device for preparing dishes by the "sous vide" method (vacuum technique), the dish or the food being contained in a vacuum bag, said device having a heating element that surrounds the vacuum bag containing the food, characterised in that the heating element is embodied as a heating film or blanket or as a heating gel, a valve being provided for the air space between the heating film or heating gel, on the one hand, and the food-containing vacuum bag, on the other hand, for the elimination of residual air.
A turbo fan comprising: a main plate rotating by a fan motor, a blade having one end connected to the main plate to rotate, a shroud connected to the other end of the blade and an orifice guiding a flow of indoor air towards the shroud, wherein the shroud comprises: a guide surface defining one surface of the shroud, the guide surface being defined on a front surface of the shroud and having a predetermined curvature; and an air guide connected to a side of the shroud and installed on a back surface of the shroud, the air guide being extended in a direction of the orifice from the shroud, characterized in that the air guide comprises: a head coupled to the back surface of the shroud; and a body connected to the head to block a flow of the air, wherein a recess part is defined in a back surface of the shroud so that the head is inserted into the recess part, and in that a protrusion protruding from one surface of the body by a predetermined length and a groove recessed from the one surface of the body by a predetermined length are disposed on the body, and a bent part to allowing air passing through the body to generate an eddy is disposed in the groove. a main plate rotating by a fan motor, a blade having one end connected to the main plate to rotate, a shroud connected to the other end of the blade and an orifice guiding a flow of indoor air towards the shroud, wherein the shroud comprises: a guide surface defining one surface of the shroud, the guide surface being defined on a front surface of the shroud and having a predetermined curvature; and an air guide connected to a side of the shroud and installed on a back surface of the shroud, the air guide being extended in a direction of the orifice from the shroud, a guide surface defining one surface of the shroud, the guide surface being defined on a front surface of the shroud and having a predetermined curvature; and an air guide connected to a side of the shroud and installed on a back surface of the shroud, the air guide being extended in a direction of the orifice from the shroud, characterized in that the air guide comprises: a head coupled to the back surface of the shroud; and a body connected to the head to block a flow of the air, a head coupled to the back surface of the shroud; and a body connected to the head to block a flow of the air, wherein a recess part is defined in a back surface of the shroud so that the head is inserted into the recess part, and in that a protrusion protruding from one surface of the body by a predetermined length and a groove recessed from the one surface of the body by a predetermined length are disposed on the body, and a bent part to allowing air passing through the body to generate an eddy is disposed in the groove.
A device comprising: an electric field applying assembly adapted to generate an electric field having a discrete electric field profile; a conducting volume; and an electrical interface region, provided between the conducting volume and the electric field applying assembly, the electrical interface region arranged such that the discrete electric field is applied to the electrical interface region by the electric field applying assembly at a location spaced from the conducting volume; said device being characterized in that the electrical interface region comprises at least an ionically conductive material arranged adjacent to and provided in direct electrical contact with the conducting volume such that the discrete electric field applied by the electric field applying assembly is smoothed by the electrical interface region so that the electric field profile established within the conducting volume is continuous. an electric field applying assembly adapted to generate an electric field having a discrete electric field profile; a conducting volume; and an electrical interface region, provided between the conducting volume and the electric field applying assembly, the electrical interface region arranged such that the discrete electric field is applied to the electrical interface region by the electric field applying assembly at a location spaced from the conducting volume; said device being characterized in that the electrical interface region comprises at least an ionically conductive material arranged adjacent to and provided in direct electrical contact with the conducting volume such that the discrete electric field applied by the electric field applying assembly is smoothed by the electrical interface region so that the electric field profile established within the conducting volume is continuous.
A method for producing a suspension, wherein water is fed by a pump (12, 45) from a storage container (3, 38, 86) through a mixing chamber (13, 65, 96) and plant parts from real nuts, kernels, grains, and/or seeds are mechanically comminuted by comminuting element (26, 52) and mixed with the water in the mixing chamber (13, 65, 96) and the mix is pressed through a filter that passes the suspension through and retains a pomace that remains from the plant parts, characterized in that a pump wheel (17, 49, 60, 97) of the pump (12, 45) forms the comminuting element (26, 52).
A system for drilling a bore in a bone and measuring a depth of the bore during surgery, said system comprising: a drill comprising a drill chuck for holding a drill bit; a drill bit mounted in the drill chuck; at least one sensor (11, 12) arranged to produce signals for determining the depth of the bore; first communication means arranged to communicate said signals to electronic processing means; electronic processing means arranged to receive said signals from said first communication means and to determine a depth of a bore from said signals; second communication means arranged to communicate said determined depth to output means; output means for outputting information about the determined depth of the bore received from said second communication means; wherein said drill bit is part of a rotatable drill bit unit, which may or may not comprise said drill chuck, and said at least one sensor (11, 12) is mounted in said drill bit unit, characterized in that one of said first and second communication means are mounted in said drill bit unit, wherein said at least one sensor (11, 12) comprises a contactless distance sensor mounted in the drill bit unit arranged to produce a signal representing a distance between a reference point on the drill bit unit and the bone surface during drilling. a drill comprising a drill chuck for holding a drill bit; a drill bit mounted in the drill chuck; at least one sensor (11, 12) arranged to produce signals for determining the depth of the bore; first communication means arranged to communicate said signals to electronic processing means; electronic processing means arranged to receive said signals from said first communication means and to determine a depth of a bore from said signals; second communication means arranged to communicate said determined depth to output means; output means for outputting information about the determined depth of the bore received from said second communication means; wherein said drill bit is part of a rotatable drill bit unit, which may or may not comprise said drill chuck, and said at least one sensor (11, 12) is mounted in said drill bit unit, characterized in that one of said first and second communication means are mounted in said drill bit unit, wherein said at least one sensor (11, 12) comprises a contactless distance sensor mounted in the drill bit unit arranged to produce a signal representing a distance between a reference point on the drill bit unit and the bone surface during drilling.