mhurhangee/ep-ind-claims huggingface dataset:
A method for reporting channel state information, CSI, comprising: receiving a first reference signal set from a base station, wherein the first reference signal set comprises at least two reference signals; sending first CSI to the base station, wherein the first CSI is determined according to the first reference signal set, and the first CSI comprises a first rank indicator, RI, and/or a first precoding matrix indicator, PMI; receiving a second reference signal set from the base station, wherein the second reference signal set is determined based on the first CSI, and the second reference signal set comprises at least one reference signal; and sending second CSI to the base station, wherein the second CSI is determined according to the second reference signal set; characterised in that wherein the sending second CSI, comprises: determining a second precoding matrix from a second codebook according to the second reference signal set; and sending the second CSI to the base station, wherein the second CSI comprises a second RI and/or a second PMI, and the second PMI is used to indicate the second precoding matrix, wherein the second codebook comprises at least one precoding matrix W, and the precoding matrix W has a structure determined according to the following equation: W = 2 NM − 1 2 w ⊗ v e jφ w ⊗ v or W = 4 NM − 1 2 w ⊗ v w ⊗ v e jφ w ⊗ v − e jφ w ⊗ v, wherein w = [1 e jφ ··· e j ( N -1) φ] T, v = [1 e jθ ··· e j ( M -1) θ] T, [] T denotes a matrix transpose, ⊗ denotes a Kronecker product, M and N are positive integers, and θ, φ and φ are phases. receiving a first reference signal set from a base station, wherein the first reference signal set comprises at least two reference signals; sending first CSI to the base station, wherein the first CSI is determined according to the first reference signal set, and the first CSI comprises a first rank indicator, RI, and/or a first precoding matrix indicator, PMI; receiving a second reference signal set from the base station, wherein the second reference signal set is determined based on the first CSI, and the second reference signal set comprises at least one reference signal; and sending second CSI to the base station, wherein the second CSI is determined according to the second reference signal set; characterised in that wherein the sending second CSI, comprises: determining a second precoding matrix from a second codebook according to the second reference signal set; and sending the second CSI to the base station, wherein the second CSI comprises a second RI and/or a second PMI, and the second PMI is used to indicate the second precoding matrix, wherein the second codebook comprises at least one precoding matrix W, and the precoding matrix W has a structure determined according to the following equation: W = 2 NM − 1 2 w ⊗ v e jφ w ⊗ v or W = 4 NM − 1 2 w ⊗ v w ⊗ v e jφ w ⊗ v − e jφ w ⊗ v, wherein w = [1 e jφ ··· e j ( N -1) φ] T, v = [1 e jθ ··· e j ( M -1) θ] T, [] T denotes a matrix transpose, ⊗ denotes a Kronecker product, M and N are positive integers, and θ, φ and φ are phases.
A temporary storage system storing articles temporarily between overhead transfer vehicles and at least a load port of processing equipment comprising: a travelling rail (4, 17) provided over the processing equipment except for an area over the load port and comprising longitudinal rails (11, 19) and lateral rails (9, 18) arranged with a gap so that openings through which articles may pass are formed by the gap; buffers provided under the openings of the travelling rail (4, 17); and local vehicles (8, 70) comprising a carriage (24, 72) configured to travel over and along said travelling rail (4, 17) and a transfer unit supported by the carriage (24, 72), wherein the carriage (24, 72) is provided with at least a longitudinal travelling unit configured to travel longitudinally; at least a lateral travelling unit configured to travel laterally; and at least an advancement and retraction mechanism configured to selectively advance one of the longitudinal travelling unit and the lateral travelling unit to a position supported by said travelling rail (4, 17), and configured to be capable of travelling along said travelling rail (4, 17) longitudinally and laterally, wherein said transfer unit is provided with a hoist to raise and lower an article and a hoist transport unit configured to move the hoist laterally, and wherein said local vehicles (8, 70) are configured to stop at a position corresponding to the load port and to advance the hoist transport unit towards the load port so as to transfer an article to and from the load port. a travelling rail (4, 17) provided over the processing equipment except for an area over the load port and comprising longitudinal rails (11, 19) and lateral rails (9, 18) arranged with a gap so that openings through which articles may pass are formed by the gap; buffers provided under the openings of the travelling rail (4, 17); and local vehicles (8, 70) comprising a carriage (24, 72) configured to travel over and along said travelling rail (4, 17) and a transfer unit supported by the carriage (24, 72), wherein the carriage (24, 72) is provided with at least a longitudinal travelling unit configured to travel longitudinally; at least a lateral travelling unit configured to travel laterally; and at least an advancement and retraction mechanism configured to selectively advance one of the longitudinal travelling unit and the lateral travelling unit to a position supported by said travelling rail (4, 17), and configured to be capable of travelling along said travelling rail (4, 17) longitudinally and laterally, wherein said transfer unit is provided with a hoist to raise and lower an article and a hoist transport unit configured to move the hoist laterally, and wherein said local vehicles (8, 70) are configured to stop at a position corresponding to the load port and to advance the hoist transport unit towards the load port so as to transfer an article to and from the load port.
A surgical organ positioning instrument for supporting and holding organs during surgery, wherein the organ positioning instrument comprises a supporting portion (1, 101, 201) having: two outer corners, a first curved, rounded edge extending from one outer corner to the other outer corner and connecting a substantially planar underside surface to a concave, rounded bearing surface a second convex edge extending from one outer corner to the other outer corner and connecting the bearing surface to a convex, rounded supporting surface, and a third convex, rounded edge extending from one outer corner to the other outer corner and connecting the supporting surface to the underside surface, wherein the bearing surface is widest at one end portion on the side of the underside surface and narrows toward its other end portion and finally merges into a bearing surface front portion which constitutes a wedge tip, characterized in that the third edge is substantially in the form of a half ellipse, the ellipse minor axis of which extends from one outer corner to the other outer corner of the supporting portion (1, 101, 201), the bearing surface is arranged substantially perpendicular to the underside surface, and the supporting portion (1, 101, 201) tapers from the underside surface in the direction of the bearing surface front portion in all dimensions parallel to the underside surface. two outer corners, a first curved, rounded edge extending from one outer corner to the other outer corner and connecting a substantially planar underside surface to a concave, rounded bearing surface a second convex edge extending from one outer corner to the other outer corner and connecting the bearing surface to a convex, rounded supporting surface, and a third convex, rounded edge extending from one outer corner to the other outer corner and connecting the supporting surface to the underside surface, wherein the bearing surface is widest at one end portion on the side of the underside surface and narrows toward its other end portion and finally merges into a bearing surface front portion which constitutes a wedge tip, characterized in that the third edge is substantially in the form of a half ellipse, the ellipse minor axis of which extends from one outer corner to the other outer corner of the supporting portion (1, 101, 201), the bearing surface is arranged substantially perpendicular to the underside surface, and the supporting portion (1, 101, 201) tapers from the underside surface in the direction of the bearing surface front portion in all dimensions parallel to the underside surface.
A cysteamine, cystamine, or a pharmaceutically acceptable salt of any of the foregoing for use in treating ischemia, ischemic injury, an acute ischemic event, thrombosis or an ischaemic injury resulting from thrombosis in a subject, wherein the use comprises increasing adiponectin levels in the subject and wherein the subject does not have diabetes or hypercholesterolemia.
Liquid curing agent for curing polymer resins, in particular curable polymer resins, in particular epoxy resins, comprising a) cyanamide, b) at least one urea derivative of formula wherein the following apply to the functional groups, simultaneously or independently of one another, and at least one functional group R 1, R 2, R 3 is different from hydrogen: R 1, R 2 = simultaneously or independently of one another hydrogen, C1- to C15-alkyl, C3- to C15-cycloalkyl or together, with formation of a ring, C3- to C10-alkylene; R 3 = hydrogen, C1- to C15-alkyl, C3- to C15-cycloalkyl, aryl, arylalkyl, C1- to C15-alkyl substituted by -NHC NR 1 R 2, C3- to C15-cycloalkyl substituted by -NHC NR 1 R 2, aryl substituted by -NHC NR 1 R 2, or arylalkyl substituted by -NHC NR 1 R 2; and c) at least one curing accelerator from the class of the imidazolines according to formula or of the imidazoles according to formula wherein the following apply to the functional groups, simultaneously or independently of one another: R 30 = simultaneously or independently of one another hydrogen, C1- to C15-alkyl, C3- to C15-cycloalkyl, aryl, arylalkyl; R 32, R 34 = simultaneously or independently of one another hydrogen, C1- to C15-alkyl, C3- to C15-cycloalkyl or together, with formation of a ring, C3- to C15-alkylene; R 33, R 35 = simultaneously or independently of one another hydrogen, C1- to C15-alkyl, C3- to C15-cycloalkyl or together, with formation of a ring, C3- to C15-alkylene. a) cyanamide, b) at least one urea derivative of formula wherein the following apply to the functional groups, simultaneously or independently of one another, and at least one functional group R 1, R 2, R 3 is different from hydrogen: R 1, R 2 = simultaneously or independently of one another hydrogen, C1- to C15-alkyl, C3- to C15-cycloalkyl or together, with formation of a ring, C3- to C10-alkylene; R 3 = hydrogen, C1- to C15-alkyl, C3- to C15-cycloalkyl, aryl, arylalkyl, C1- to C15-alkyl substituted by -NHC NR 1 R 2, C3- to C15-cycloalkyl substituted by -NHC NR 1 R 2, aryl substituted by -NHC NR 1 R 2, or arylalkyl substituted by -NHC NR 1 R 2; and R 1, R 2 = simultaneously or independently of one another hydrogen, C1- to C15-alkyl, C3- to C15-cycloalkyl or together, with formation of a ring, C3- to C10-alkylene; R 3 = hydrogen, C1- to C15-alkyl, C3- to C15-cycloalkyl, aryl, arylalkyl, C1- to C15-alkyl substituted by -NHC NR 1 R 2, C3- to C15-cycloalkyl substituted by -NHC NR 1 R 2, aryl substituted by -NHC NR 1 R 2, or arylalkyl substituted by -NHC NR 1 R 2; c) at least one curing accelerator from the class of the imidazolines according to formula or of the imidazoles according to formula R 30 = simultaneously or independently of one another hydrogen, C1- to C15-alkyl, C3- to C15-cycloalkyl, aryl, arylalkyl; R 32, R 34 = simultaneously or independently of one another hydrogen, C1- to C15-alkyl, C3- to C15-cycloalkyl or together, with formation of a ring, C3- to C15-alkylene; R 33, R 35 = simultaneously or independently of one another hydrogen, C1- to C15-alkyl, C3- to C15-cycloalkyl or together, with formation of a ring, C3- to C15-alkylene.
A switching device for a MV electric power distribution network, said switching device comprising electric contacts (2, 3), which are electrically connectable to a conductor (P, P 1, P 2, P 3) of said electric power distribution network, and a control unit for managing the operation of said switching device characterised in that it comprises signalling means operatively connected to said control unit, said signalling means comprising a light source adapted to emit visible light observable externally to said switching device, said control unit being adapted to provide control signals (C 1, C 2, C 3) to control said signalling means, so that said light source emits light signals (L 1, L 2, L 3) indicative of corresponding operating conditions (CON 1, CON 2) of said switching device, said control unit being adapted to provide first control signals (C 1) to control said signalling means, so that said light source emits first pulsed light signals (L 1) having one or more first sequences (T 1) of light pulses having corresponding time distributions, each time distribution providing coded information (I S) indicative of a corresponding first operating condition (CON 1) of said switching device, during a start-up functioning of said switching device; said control unit being adapted to provide second control signals (C 2) to control said signalling means, so that said light source emits second pulsed light signals (L 2) having one or more second sequences (T 2) of light pulses having corresponding time distributions, each time distribution providing coded information (I S) indicative of a corresponding second operating condition (CON 2) of said switching device, during a normal functioning of said switching device.
Method for applying an electrical contact point to an electrical connection part, the electrical connection part being formed from a metallic substrate, comprising the steps: - layer-by-layer application of a coating material to the substrate formed from a metallic base material in the region of the electrical contact point to be applied, - layer-by-layer solidification of at least part of the applied coating material, characterized in - that the coating material is filled into a mask arranged on the base material, and - that the coating material is bonded to the base material by means of the mask, and further characterized by a removal of the non-solidified part of the coating material. - layer-by-layer application of a coating material to the substrate formed from a metallic base material in the region of the electrical contact point to be applied, - layer-by-layer solidification of at least part of the applied coating material, characterized in - that the coating material is filled into a mask arranged on the base material, and - that the coating material is bonded to the base material by means of the mask, and further characterized by a removal of the non-solidified part of the coating material.
A control method for controlling an information processing device comprising a camera for receiving an image and a display having a display surface on the same side as an image-receiving side of the camera, wherein: the control method causes a computer of the information processing device for receiving an image of a face of a subject from the camera, horizontally inverting the received image, and displaying the horizontally-inverted image on the display, to execute: detecting (S304, S305) a distance between the information processing device and a reference portion included in the face of the subject; characterized in that the control method further causes the computer to execute: determining a scaling factor based on a ratio between a reference distance used for evaluating the image of the face of the subject and the detected distance; generating as a guide image for guiding the subject in such a direction as to change a distance between the information processing device and the subject, an image corresponding to at least one part included in an image obtained by enlarging or shrinking the horizontally-inverted received image of the face based on the determined scaling factor; and displaying the generated guide image on the display, wherein the displayed guide image is superimposed over the horizontally-inverted image. detecting (S304, S305) a distance between the information processing device and a reference portion included in the face of the subject; characterized in that the control method further causes the computer to execute: determining a scaling factor based on a ratio between a reference distance used for evaluating the image of the face of the subject and the detected distance; generating as a guide image for guiding the subject in such a direction as to change a distance between the information processing device and the subject, an image corresponding to at least one part included in an image obtained by enlarging or shrinking the horizontally-inverted received image of the face based on the determined scaling factor; and displaying the generated guide image on the display, wherein the displayed guide image is superimposed over the horizontally-inverted image. determining a scaling factor based on a ratio between a reference distance used for evaluating the image of the face of the subject and the detected distance; generating as a guide image for guiding the subject in such a direction as to change a distance between the information processing device and the subject, an image corresponding to at least one part included in an image obtained by enlarging or shrinking the horizontally-inverted received image of the face based on the determined scaling factor; and displaying the generated guide image on the display, wherein the displayed guide image is superimposed over the horizontally-inverted image.
A method for quality inspection of a lot of electrochemical test strips, comprising the steps of: (a) obtaining a plurality of test strips from the lot; (b) applying a sample to each of the test strips; (c) measuring the double-layer capacitance of the test strips in the presence of the sample; and (d) determining the variability in measured double-layer capacitance, wherein a variability in excess of a defined threshold indicates a quality deficiency in the test strips. (a) obtaining a plurality of test strips from the lot; (b) applying a sample to each of the test strips; (c) measuring the double-layer capacitance of the test strips in the presence of the sample; and (d) determining the variability in measured double-layer capacitance, wherein a variability in excess of a defined threshold indicates a quality deficiency in the test strips.
An illumination light source (100, 300, 400, 500) comprising: a module board (121, 641) on which a light-emitting element (122, 512, 642) is mounted; a circuit board (151, 661); a drive circuit (150, 407, 520, 660) for generating a DC voltage superimposed with noise, wherein the drive circuit (150, 407, 520, 660) is mounted on the circuit board (151, 661); an output wire (153a, 153b, 553a, 653a) for supplying the DC voltage superimposed with noise from the drive circuit (150, 407, 520, 660) to the light-emitting element (122, 512, 642) to turn on the light-emitting element (122, 512, 642); characterized by a metal component (130, 140, 145, 170; 403, 405; 505) forming a pedestal (130, 140, 403) that supports the module board (121, 641), wherein the metal component (130, 140, 170; 403, 405; 505) is electrostatically coupled with the output wire (153a, 153b, 553a, 653a) supplying the DC voltage superimposed with noise to the light-emitting element (122, 512, 642); and a reference potential wire (154, 354, 454, 456, 554, 654) electrically connecting the metal component (130, 140, 170; 403, 405; 505) to a reference potential of the drive circuit (150, 407, 520, 660) to thereby suppress noise induced in the metal component (130, 140, 170; 403, 405; 505) by electrostatic coupling with the output wire (153a, 153b, 553a, 653a). a module board (121, 641) on which a light-emitting element (122, 512, 642) is mounted; a circuit board (151, 661); a drive circuit (150, 407, 520, 660) for generating a DC voltage superimposed with noise, wherein the drive circuit (150, 407, 520, 660) is mounted on the circuit board (151, 661); an output wire (153a, 153b, 553a, 653a) for supplying the DC voltage superimposed with noise from the drive circuit (150, 407, 520, 660) to the light-emitting element (122, 512, 642) to turn on the light-emitting element (122, 512, 642); characterized by a metal component (130, 140, 145, 170; 403, 405; 505) forming a pedestal (130, 140, 403) that supports the module board (121, 641), wherein the metal component (130, 140, 170; 403, 405; 505) is electrostatically coupled with the output wire (153a, 153b, 553a, 653a) supplying the DC voltage superimposed with noise to the light-emitting element (122, 512, 642); and a reference potential wire (154, 354, 454, 456, 554, 654) electrically connecting the metal component (130, 140, 170; 403, 405; 505) to a reference potential of the drive circuit (150, 407, 520, 660) to thereby suppress noise induced in the metal component (130, 140, 170; 403, 405; 505) by electrostatic coupling with the output wire (153a, 153b, 553a, 653a).
A method for registering implant orientation directly from a dental impression for acquiring data by imaging the dental impression, the method including: • providing a system comprising: - an implant position transfer body, said implant position transfer body comprising: ∘ an implant side to mate with a dental implant affixed in a patient's jawbone, ∘ an impression side having a terminus structure at its end, - a scan body having a first end extending to a second end, the second end of the scan body having the same structure as the impression side of the implant position transfer body, • mating the transfer body atop the dental implant; • applying the impression side in a dental impression material when the transfer body has been mated atop the dental implant material, thereby • creating a defined cavity in a dental impression when the dental impression material hardens; • securely fitting the second end of the scan body in the defined cavity of the dental impression; and • acquiring the position and orientation of the implant by scanning the dental impression having the scan body, thereby registering implant orientation directly from the dental impression. • providing a system comprising: - an implant position transfer body, said implant position transfer body comprising: ∘ an implant side to mate with a dental implant affixed in a patient's jawbone, ∘ an impression side having a terminus structure at its end, - a scan body having a first end extending to a second end, the second end of the scan body having the same structure as the impression side of the implant position transfer body, - an implant position transfer body, said implant position transfer body comprising: ∘ an implant side to mate with a dental implant affixed in a patient's jawbone, ∘ an impression side having a terminus structure at its end, ∘ an implant side to mate with a dental implant affixed in a patient's jawbone, ∘ an impression side having a terminus structure at its end, - a scan body having a first end extending to a second end, the second end of the scan body having the same structure as the impression side of the implant position transfer body, • mating the transfer body atop the dental implant; • applying the impression side in a dental impression material when the transfer body has been mated atop the dental implant material, thereby • creating a defined cavity in a dental impression when the dental impression material hardens; • securely fitting the second end of the scan body in the defined cavity of the dental impression; and • acquiring the position and orientation of the implant by scanning the dental impression having the scan body, thereby registering implant orientation directly from the dental impression.