mhurhangee/patent-ind-claim-en huggingface dataset:
Lattice structure forming a flat or undulate bearing grid or protective grid which is only slightly deformed even in the case of high loads, consisting of intersecting longitudinal and transversal elements (2, 2', 2", 12, 22 respectively 3, 3', 3", 13, 23), with intersection points allocated to said longitudinal and transversal elements (2, 2', 2", 12, 22 respectively 3, 3', 3", 13, 23), the longitudinal and transversal elements being situated in a plane and oriented at right angles or with other intersection angles with respect to one another, wherein the longitudinal elements are embodied as strands and wherein the transversal elements are in the intersection points passed through the wires of the longitudinal elements realized as strands, and are thus connected to one another, being passed into one another, in such a way that the transversal elements are clamped between the wires of the longitudinal elements which form the strands; and in this way non-displaceable nodes are formed in the intersection points , characterised in that the longitudinal and transversal elements are formed by strands of respectively two or more than two twisted wires, the longitudinal and transversal elements being made at least partially of high-tensile steel having a strength of 700 N/mm 2 to 2,800 N/mm 2 , the transversal elements being in the intersection points passed through the wires of the longitudinal elements formed as strands, which have a constant direction of lay, and the transversal elements being clamped between the longitudinal elements in a form-fit manner. consisting of intersecting longitudinal and transversal elements (2, 2', 2", 12, 22 respectively 3, 3', 3", 13, 23), with intersection points allocated to said longitudinal and transversal elements (2, 2', 2", 12, 22 respectively 3, 3', 3", 13, 23), the longitudinal and transversal elements being situated in a plane and oriented at right angles or with other intersection angles with respect to one another, wherein the longitudinal elements are embodied as strands and wherein the transversal elements are in the intersection points passed through the wires of the longitudinal elements realized as strands, and are thus connected to one another, being passed into one another, in such a way that the transversal elements are clamped between the wires of the longitudinal elements which form the strands; and in this way non-displaceable nodes are formed in the intersection points , characterised in that the longitudinal and transversal elements are formed by strands of respectively two or more than two twisted wires, the longitudinal and transversal elements being made at least partially of high-tensile steel having a strength of 700 N/mm 2 to 2,800 N/mm 2 , the transversal elements being in the intersection points passed through the wires of the longitudinal elements formed as strands, which have a constant direction of lay, and the transversal elements being clamped between the longitudinal elements in a form-fit manner.
Measuring system comprising at least two electrodes on the inner wall of a pipe for conducting a multiphase fluid flow, the pipe having a deposit layer covering said inner wall, the flow having an essentially constant water liquid ratio (WLR) over a time span, the electrodes being positioned on the inner surface of the pipe and being connected to a measuring instrument for measuring the electrical characteristics between the electrodes , the system also comprising a flow density sensor measuring in essentially the same volume as the electrodes , the system including an analyzing unit in said measuring instrument configured to sample said density and electrical characteristic at a predetermined rate, the measuring system being characterised in that the analysis unit is configured to calculate a best fit curve representing the sampled data as a function between the corresponding density and electrical characteristic data and based on the curve determining the effect of said deposit layer . a pipe for conducting a multiphase fluid flow, the pipe having a deposit layer covering said inner wall, the flow having an essentially constant water liquid ratio (WLR) over a time span, the electrodes being positioned on the inner surface of the pipe and being connected to a measuring instrument for measuring the electrical characteristics between the electrodes , the system also comprising a flow density sensor measuring in essentially the same volume as the electrodes , the system including an analyzing unit in said measuring instrument configured to sample said density and electrical characteristic at a predetermined rate, the measuring system being characterised in that the analysis unit is configured to calculate a best fit curve representing the sampled data as a function between the corresponding density and electrical characteristic data and based on the curve determining the effect of said deposit layer .
A portable device comprising: a front case and a battery cover an antenna comprising a radiator disposed at one surface of the portable device and mounted in the front case of the portable device ; and wherein the portable device further comprises: a resonant frequency compensation unit disposed at another surface of the portable device facing the one surface, and having a predetermined dielectric constant set to adjust a resonant frequency of the antenna changed by an environmental change to a preset resonant frequency, wherein the resonant frequency compensation unit is a dielectric block having a predetermined dielectric constant preset based on a dielectric constant of the front case and/or the battery cover of the portable device , the dielectric constant of the front case and/or the battery cover being changed by a color of a material painted thereon, representative of the environmental change, wherein the resonant frequency compensation unit is disposed at an inner surface of the battery cover facing the front case in which the radiator is mounted. a front case and a battery cover an antenna comprising a radiator disposed at one surface of the portable device and mounted in the front case of the portable device ; and wherein the portable device further comprises: a resonant frequency compensation unit disposed at another surface of the portable device facing the one surface, and having a predetermined dielectric constant set to adjust a resonant frequency of the antenna changed by an environmental change to a preset resonant frequency, wherein the resonant frequency compensation unit is a dielectric block having a predetermined dielectric constant preset based on a dielectric constant of the front case and/or the battery cover of the portable device , the dielectric constant of the front case and/or the battery cover being changed by a color of a material painted thereon, representative of the environmental change, wherein the resonant frequency compensation unit is disposed at an inner surface of the battery cover facing the front case in which the radiator is mounted. a resonant frequency compensation unit disposed at another surface of the portable device facing the one surface, and having a predetermined dielectric constant set to adjust a resonant frequency of the antenna changed by an environmental change to a preset resonant frequency, wherein the resonant frequency compensation unit is a dielectric block having a predetermined dielectric constant preset based on a dielectric constant of the front case and/or the battery cover of the portable device , the dielectric constant of the front case and/or the battery cover being changed by a color of a material painted thereon, representative of the environmental change, wherein the resonant frequency compensation unit is disposed at an inner surface of the battery cover facing the front case in which the radiator is mounted.
A cuvette for analysing blood comprising: a main body having a sample chamber formed therein; an opening formed in the exterior of the main body, at an apex of the cuvette, wherein the sample chamber communicates with the exterior of the cuvette by the opening , wherein the sample chamber comprises a first sample chamber and a second sample chamber , the first sample chamber being in fluid communication with the opening , and the second sample chamber having a first end which is in fluid communication with the first sample chamber , and a second, closed end , the second sample chamber being in fluid communication with the exterior of the cuvette only through the first chamber , the first chamber having a width which is greater than that of the second chamber , and the volume of the second chamber being greater than or equal to the volume of the first chamber , and further wherein the greatest width of the opening is greater than or equal to the greatest width of the first sample chamber , the greatest width of the first sample chamber is greater than or equal to the greatest width of the second sample chamber , and the width of the sample chamber , passing from the opening to the closed end of the second chamber , at each point along its length either remains constant or decreases, and wherein the sample chamber is configured such that, when the apex of the cuvette touches the surface of a drop of blood , some of the blood is drawn into the first sample chamber by capillary action, but is not drawn into the second sample chamber by capillary action. a main body having a sample chamber formed therein; an opening formed in the exterior of the main body, at an apex of the cuvette, wherein the sample chamber communicates with the exterior of the cuvette by the opening , wherein the sample chamber comprises a first sample chamber and a second sample chamber , the first sample chamber being in fluid communication with the opening , and the second sample chamber having a first end which is in fluid communication with the first sample chamber , and a second, closed end , the second sample chamber being in fluid communication with the exterior of the cuvette only through the first chamber , the first chamber having a width which is greater than that of the second chamber , and the volume of the second chamber being greater than or equal to the volume of the first chamber , and further wherein the greatest width of the opening is greater than or equal to the greatest width of the first sample chamber , the greatest width of the first sample chamber is greater than or equal to the greatest width of the second sample chamber , and the width of the sample chamber , passing from the opening to the closed end of the second chamber , at each point along its length either remains constant or decreases, and wherein the sample chamber is configured such that, when the apex of the cuvette touches the surface of a drop of blood , some of the blood is drawn into the first sample chamber by capillary action, but is not drawn into the second sample chamber by capillary action.
An imaging apparatus for diagnosis with which a first probe provided with a first transmitting and receiving unit for repeating electric signal transmission and reception, and a second probe provided with a second transmitting and receiving unit for repeating optical signal transmission and reception are configured to be connected detachably, respectively, said imaging apparatus for diagnosis being configured to obtain a reflected signal inside a body cavity from the first or the second transmitting and receiving unit by rotationally operating the first or the second transmitting and receiving unit inside the body cavity, and which is configured to generate a tomographic image inside the body cavity based on the obtained reflected signal, the imaging apparatus comprising a scanner unit configured to connect detachably with the first probe and the second probe; an electric rotary connector carrying out transmission of the electric signal with respect to the first transmitting and receiving unit in a state of rotationally operating the first transmitting and receiving unit; an optical rotary connector carrying out transmission of the optical signal with respect to the second transmitting and receiving unit in a state of rotationally operating the second transmitting and receiving unit, and wherein the electric rotary connector includes a metal surface mounted on a rotational drive unit side and a brush mounted on a fixed unit side, and the brush is operable between a contact position sliding on the metal surface and a non-contact position which non-contacts with the metal surface, characterized in that the imaging apparatus further comprises a motor for operating the brush between a contact position and a non-contact position, and an operation mode obtaining unit which is configured to discriminate whether the first probe or the second probe is connected to the scanner unit, and to input the discrimination results to the motor control unit for brush operation which controls the motor for operating the brush between a contact position and a non-contact position, such that in case the first probe is connected to the scanner unit, the brush is operable in the contact position and in case the second probe is connected to the scanner unit the brush is operable in the non-contact position.
A radio terminal configured for use in a radio communication system in which at least one radio base station is configured to control a plurality of types of cells by using one radio access technology, the radio terminal comprising: means for recognizing a type of a cell that is identified based on a type of system information that is transmitted by the at least one radio base station, the system information being broadcasted in each cell; means for receiving from the at least one radio base station an instruction related to a report of measurement results based on measurement report criteria that are different depending on a type of a cell; means for reporting, to the at least one radio base station, measurement results based on the measurement report criteria wherein the types of system information include a kind of the system information transmitted regardless of the types of the cells and a kind of the system information transmitted only in a specific type of the cell. means for recognizing a type of a cell that is identified based on a type of system information that is transmitted by the at least one radio base station, the system information being broadcasted in each cell; means for receiving from the at least one radio base station an instruction related to a report of measurement results based on measurement report criteria that are different depending on a type of a cell; means for reporting, to the at least one radio base station, measurement results based on the measurement report criteria wherein the types of system information include a kind of the system information transmitted regardless of the types of the cells and a kind of the system information transmitted only in a specific type of the cell.
Slide valve, preferably for closing off a media-conveying line, comprising a housing with a longitudinal slot and a through-opening , a slide plate that can be moved therein and a sealing arrangement , which is formed as a single piece from in each case at least a transverse longitudinal seal above the through-opening on both sides of the slide plate and from a profile with legs (23", 53", 58') partially surrounds the through-opening , characterised in that at the ends of the legs (23", 53", 58') of the profile on both sides, in each case two longitudinal seals , running parallel to and spaced apart from one another, are each connected to the profile on the lateral face of the latter, or that with the sealing arrangement with on both sides each a transverse longitudinal seal the both legs of the profile on their outsides , which are turned away from one another, and on their lateral faces (58") in closing direction are formed tapered or conically and the corresponding surfaces of the respective longitudinal slot are likewise formed in the housing with the same conicity as the outsides respectively the lateral faces (58").
An inflatable product comprising: a first PVC sheet ; a second PVC sheet disposed opposite the first PVC sheet , the first and second PVC sheets being spaced apart when the product is inflated to define a gap, the first sheet and the second sheet cooperating to at least partially bound an inflatable chamber; a plurality of tensioning structures spanning the gap between the first PVC sheet and the second PVC sheet , each of the plurality of tensioning structures comprising: a plurality of strands uniformly spaced apart and substantially parallel to one another; a first pair of weld strips having the plurality of strands captured therebetween and at least one of the first pair of weld strips being welded to the first PVC sheet ; and a second pair of weld strips spaced from the first pair of weld strips , the second pair of weld strips having the plurality of strands captured therebetween and, at least one of the second pair of weld strips being welded to the second PVC sheet , the plurality of strands extending across the first and second pairs of weld strips . a first PVC sheet ; a second PVC sheet disposed opposite the first PVC sheet , the first and second PVC sheets being spaced apart when the product is inflated to define a gap, the first sheet and the second sheet cooperating to at least partially bound an inflatable chamber; a plurality of tensioning structures spanning the gap between the first PVC sheet and the second PVC sheet , each of the plurality of tensioning structures comprising: a plurality of strands uniformly spaced apart and substantially parallel to one another; a first pair of weld strips having the plurality of strands captured therebetween and at least one of the first pair of weld strips being welded to the first PVC sheet ; and a second pair of weld strips spaced from the first pair of weld strips , the second pair of weld strips having the plurality of strands captured therebetween and, at least one of the second pair of weld strips being welded to the second PVC sheet , the plurality of strands extending across the first and second pairs of weld strips . a plurality of strands uniformly spaced apart and substantially parallel to one another; a first pair of weld strips having the plurality of strands captured therebetween and at least one of the first pair of weld strips being welded to the first PVC sheet ; and a second pair of weld strips spaced from the first pair of weld strips , the second pair of weld strips having the plurality of strands captured therebetween and, at least one of the second pair of weld strips being welded to the second PVC sheet , the plurality of strands extending across the first and second pairs of weld strips .
A method for fiber parameter identification in an optical communications system , the method comprising: calculating one or more C-matrices from one or more corresponding signals received at a receiver from a transmitter over a link in the optical communications system , each C-matrix comprising a plurality of C-coefficients representative of nonlinear noise in the received signal from which the C-matrix is calculated, wherein, for each of the one or more received signals, a different amount of chromatic dispersion 'CD' pre-compensation is applied at the transmitter , thereby minimizing signal nonlinearity at a different location in the link ; and identifying , based on the one or more C-matrices, one or more fiber parameter estimates corresponding to at least one of the different locations in the link . calculating one or more C-matrices from one or more corresponding signals received at a receiver from a transmitter over a link in the optical communications system , each C-matrix comprising a plurality of C-coefficients representative of nonlinear noise in the received signal from which the C-matrix is calculated, wherein, for each of the one or more received signals, a different amount of chromatic dispersion 'CD' pre-compensation is applied at the transmitter , thereby minimizing signal nonlinearity at a different location in the link ; and identifying , based on the one or more C-matrices, one or more fiber parameter estimates corresponding to at least one of the different locations in the link .
Apparatus for additively manufacturing of three-dimensional objects by means of successive layerwise selective irradiation and consolidation of layers of a build material which can be consolidated by means of an energy beam, the apparatus comprising a process chamber comprising at least a first region and a second region , whereby in the first region build material can be applied and irradiated on a build plane , and at least one process gas outlet configured to guide a stream of process gas , at least a portion of the stream of process gas vertically separating the first region from the second region ; characterized by a tool carrier comprising a coater , the tool carrier being selectively moveable between the first region and the second region . a process chamber comprising at least a first region and a second region , whereby in the first region build material can be applied and irradiated on a build plane , and at least one process gas outlet configured to guide a stream of process gas , at least a portion of the stream of process gas vertically separating the first region from the second region ; characterized by a tool carrier comprising a coater , the tool carrier being selectively moveable between the first region and the second region .
A camera device comprising: a housing ; a lens assembly including at least one lens; a driving unit moving the lens assembly ; a main substrate on which an image sensor (IS) is provided; and a first substrate and a second substrate electrically connected to the driving unit and spaced apart from each other on opposite side surfaces of the housing , wherein the main substrate includes a first connection member (CC1) connected to the first substrate and a second connection member (CC2) connected to the second substrate , characterized in that the first substrate includes a first main area (MA1) and a first connection area (CA1) in contact with an end of the first main area (MA1), the second substrate includes a second main area (MA2) and a second connection area (CA2) in contact with an end of the second main area (MA2), a first connection terminal part (CE1) of the first connection area (CA1) is electrically connected to a first substrate terminal part (PE1) of the main substrate through the first connection member (CC1), and a second connection terminal part (CE2) of the second connection area (CA2) is electrically connected to a second substrate terminal part (PE2) of the main substrate through the second connection member (CC2). a housing ; a lens assembly including at least one lens; a driving unit moving the lens assembly ; a main substrate on which an image sensor (IS) is provided; and a first substrate and a second substrate electrically connected to the driving unit and spaced apart from each other on opposite side surfaces of the housing , wherein the main substrate includes a first connection member (CC1) connected to the first substrate and a second connection member (CC2) connected to the second substrate , characterized in that the first substrate includes a first main area (MA1) and a first connection area (CA1) in contact with an end of the first main area (MA1), the second substrate includes a second main area (MA2) and a second connection area (CA2) in contact with an end of the second main area (MA2), a first connection terminal part (CE1) of the first connection area (CA1) is electrically connected to a first substrate terminal part (PE1) of the main substrate through the first connection member (CC1), and a second connection terminal part (CE2) of the second connection area (CA2) is electrically connected to a second substrate terminal part (PE2) of the main substrate through the second connection member (CC2).