mhurhangee/ep-ind-claims huggingface dataset:
A measuring apparatus for inspecting a seal of an item, wherein the measuring apparatus includes a radiation source (510, 520) for providing radiation for illuminating the seal of the item, a detector (530, 540) for receiving radiation from the item for generating a corresponding detected signal, and a processing arrangement for processing the detected signal to generate an output signal indicative of a state of the seal, whereby: (a) the radiation source (510, 520) is arranged to focus the radiation into a plurality of focal points at the seal of the item by employing one of - chromatic dispersion occurring in one or more optical components, and - confocal imaging techniques; and wherein the focal points are mutually spatially spaced apart; (b) the detector (530, 540) is arranged to image one or more of the focal points and to be selectively sensitive to an intensity of radiation received from the one or more focal points to generate a detected signal; and (c) the processing arrangement is operable to receive the detected signal and to process the detected signal to generate the output signal indicative of the state of the seal and indicative of the occurrence of defects, characterized in that the processing arrangement is operable to detect one or more radiation peaks (800, 810, 820) present in the detected signal as a function of depth (h) along interception of the seal to determine a magnitude of the one or more radiation peaks (800, 810, 820), and to determine from a relative ratio of the magnitude of the one or more radiation peaks (800, 810, 820) the state of the seal. (a) the radiation source (510, 520) is arranged to focus the radiation into a plurality of focal points at the seal of the item by employing one of - chromatic dispersion occurring in one or more optical components, and - confocal imaging techniques; and wherein the focal points are mutually spatially spaced apart; - chromatic dispersion occurring in one or more optical components, and - confocal imaging techniques; and wherein the focal points are mutually spatially spaced apart; (b) the detector (530, 540) is arranged to image one or more of the focal points and to be selectively sensitive to an intensity of radiation received from the one or more focal points to generate a detected signal; and (c) the processing arrangement is operable to receive the detected signal and to process the detected signal to generate the output signal indicative of the state of the seal and indicative of the occurrence of defects,
A camera comprising: a camera-side mount, wherein first, second, and third camera-side contact pins are adjacent to one another and are disposed in the alignment sequence order of the first, second, and third camera-side contact pins, characterized in that the first camera-side contact pin is a pin corresponding to detection of a signal change caused by coupling of a camera accessory, the second camera-side contact pin is a pin corresponding to supply of power for communication with the coupled camera accessory, and the third camera-side contact pin is a pin corresponding to supply of a driving power to an actuator of the camera accessory. a camera-side mount, wherein first, second, and third camera-side contact pins are adjacent to one another and are disposed in the alignment sequence order of the first, second, and third camera-side contact pins, characterized in that the first camera-side contact pin is a pin corresponding to detection of a signal change caused by coupling of a camera accessory, the second camera-side contact pin is a pin corresponding to supply of power for communication with the coupled camera accessory, and the third camera-side contact pin is a pin corresponding to supply of a driving power to an actuator of the camera accessory.
A device for processing a cable comprising at least one insulated electrical conductor, with a tool movable relative to the cable and with a measuring device, by means of which contacting of the electrical conductor by the tool is detectable, characterised in that the tool is connected to a first electrode element which is movable relative to a second electrode element so that by way of the two electrode elements (21, 22), which are separated from each other by an air gap or an insulation material, a coupling capacitator is formed, via which the metallic tool is or can be connected to the measuring device, an alternating voltage source or an electrical potential, and in that the first and the second electrode element (21, 22) are held so as to be rotatable or displaceable relative to each other, wherein the two electrode elements (21, 22) are dimensioned and held in such a way that surfaces of the two electrode elements (21, 22) overlapping each other and the distance between the two electrode elements (21, 22) remain approximately constant during the rotation or displacement of the two electrodes relative to each other.
An interspinous process spacing device, comprising: a first attachment side and a second attachment side; and securing means for securing the second attachment side relative to the first attachment side, wherein, upon securing the second attachment side relative to the first attachment side by the securing means, the first attachment side and the second attachment side are engaged with the adjacent spinous processes, the interspinous process spacing device further comprises a spacer tray positioned between the first attachment side and the second attachment side, the spacer tray extending from the first attachment side and slideably insertable through a spacer tray slot formed in the second attachment side, wherein the spacer tray is adapted to retain adjacent spinous processes in a spaced apart orientation, and characterized in that at least an end portion of the spacer tray has a longitudinally arcuate shape extending in a posterior curvature adapted to facilitate angled insertion of the spacer tray through the spacer tray slot. a first attachment side and a second attachment side; and securing means for securing the second attachment side relative to the first attachment side, wherein, upon securing the second attachment side relative to the first attachment side by the securing means, the first attachment side and the second attachment side are engaged with the adjacent spinous processes, the interspinous process spacing device further comprises a spacer tray positioned between the first attachment side and the second attachment side, the spacer tray extending from the first attachment side and slideably insertable through a spacer tray slot formed in the second attachment side, wherein the spacer tray is adapted to retain adjacent spinous processes in a spaced apart orientation, and characterized in that at least an end portion of the spacer tray has a longitudinally arcuate shape extending in a posterior curvature adapted to facilitate angled insertion of the spacer tray through the spacer tray slot.
A method for transmitting a 4-antenna precoding matrix, comprising: determining a rank used for indicating the number of transmission layers; determining a value of a first codebook index corresponding to one precoding matrix set in a codebook set, wherein the codebook set corresponds to the rank, and precoding matrices comprised in the codebook set are represented by the first codebook index and a second codebook index; determining a jointly coded value corresponding to the rank and the value of the first codebook index, wherein the jointly coded value and the rank have a first correspondence, and the jointly coded value and the first codebook index have a second correspondence; and sending the jointly coded value to a base station, wherein: the precoding matrices W comprised in the codebook set satisfy the following equation: W = W 1 × W 2, wherein W 1 = X n 0 0 X n, X n = 1 1 1 1 q 1 n q 1 n + 8 q 1 n + 16 q 1 n + 24, q 1 = e j2π /32, and n = 0,1,..,15; and characterized in that the first codebook index corresponds to one value of n, and a value range of n is a set {0, 1, 2, 3, 4, 5, 6, 7}, {8, 9, 10, 11, 12, 13, 14, 15}, {0, 2, 4, 6}, {1, 3, 5, 7}, {8, 10, 12, 14}, or {9, 11, 13, 15}. determining a rank used for indicating the number of transmission layers; determining a value of a first codebook index corresponding to one precoding matrix set in a codebook set, wherein the codebook set corresponds to the rank, and precoding matrices comprised in the codebook set are represented by the first codebook index and a second codebook index; determining a jointly coded value corresponding to the rank and the value of the first codebook index, wherein the jointly coded value and the rank have a first correspondence, and the jointly coded value and the first codebook index have a second correspondence; and sending the jointly coded value to a base station, wherein: the precoding matrices W comprised in the codebook set satisfy the following equation: W = W 1 × W 2, wherein W 1 = X n 0 0 X n, X n = 1 1 1 1 q 1 n q 1 n + 8 q 1 n + 16 q 1 n + 24, q 1 = e j2π /32, and n = 0,1,..,15; and characterized in that the first codebook index corresponds to one value of n, and a value range of n is a set {0, 1, 2, 3, 4, 5, 6, 7}, {8, 9, 10, 11, 12, 13, 14, 15}, {0, 2, 4, 6}, {1, 3, 5, 7}, {8, 10, 12, 14}, or {9, 11, 13, 15}. the precoding matrices W comprised in the codebook set satisfy the following equation: W = W 1 × W 2, wherein W 1 = X n 0 0 X n, X n = 1 1 1 1 q 1 n q 1 n + 8 q 1 n + 16 q 1 n + 24, q 1 = e j2π /32, and n = 0,1,..,15; and characterized in that the first codebook index corresponds to one value of n, and a value range of n is a set {0, 1, 2, 3, 4, 5, 6, 7}, {8, 9, 10, 11, 12, 13, 14, 15}, {0, 2, 4, 6}, {1, 3, 5, 7}, {8, 10, 12, 14}, or {9, 11, 13, 15}.
A set of furniture components formed as rectangular or square panels (1,2) comprising a first and a second panel, a panel edge of the second panel being insertable into a core groove of the first panel to obtain a mechanical connection between the first and the second panel, the panel edge being insertable into the core groove by an essentially linear relative displacement of the first and second panel when the first and second panel are arranged essentially perpendicularly to each other, said panel edge comprising a separate and flexible tongue and said core groove comprising a tongue groove, the tongue groove comprising two parallel side walls (5a, 5b) and a rounded bottom wall connecting the two side walls (5a, 5b), wherein the separate and flexible tongue is insertable into the tongue groove for connecting said panels to each other in a first direction, which is perpendicular to a main plane (MP-1) of the first panel, which coincides with an upper side of the first panel, wherein the panel edge of the second panel is configured to be inserted into the core groove of the first panel for connecting said panels to each other in a second direction, which is perpendicular to a main plane (MP-2) of the second panel, which coincides with a lower side of the second panel, wherein a longitudinal direction of the separate and flexible tongue extends parallel with said panel edge and/or core groove, and wherein the separate and flexible tongue is arranged in an insertion groove, said separate and flexible tongue being displaceable inwardly towards a bottom of the insertion groove and outwardly into the tongue groove during a locking of the first and second panel, wherein an engagement portion of the core groove is arranged to engage with said separate and flexible tongue during locking of the first and second panel for displacing the separate and flexible tongue inwardly towards the bottom of the insertion groove, wherein said engagement portion is bevelled, and wherein the second panel comprises an overlapping portion, which engages with the engagement portion in a locked position of the first and second panel.
Lithium battery (100; 200) having the following features a. it comprises a positive electrode (103; 203) which is embodied as a hollow cylinder and defines a cavity(104; 204), b. it comprises a negative electrode (105; 205) which is arranged in the cavity (104; 204), c. it comprises a separator (106; 206) which is arranged between the positive and the negative electrode (103, 105; 203, 205), d. it comprises a liquid electrolyte with which the electrodes (103, 105; 203, 205) and the separator (106; 206) are soaked, e. it comprises a first current collector (107; 207) for the negative electrode (105; 205), f. it comprises a second current collector for the positive electrode (103; 203), g. it comprises an at least two-part housing which encloses an interior space in which the positive electrode (103; 203) together with the negative electrode (105; 205) in the cavity (104; 204) and with the separator (106; 206) are arranged, h. a pin is provided as the first current collector (107; 207) inside the housing, i. a part of the housing (101; 201) serves as the second current collector, j. the pin (107; 207) has a first terminal section (107b; 207b) which is completely countersunk in the negative electrode (105; 205), and k. the pin (107; 207) has a second section (107c; 207c) within the housing, which section is not in direct contact with the negative electrode (105; 205) and which is directly adjoined to the first section (107b; 207b) characterized in that 1. the battery comprises an insulator element (108; 208) which prevents direct contact of the electrolyte with the second section (107c; 207c). a. it comprises a positive electrode (103; 203) which is embodied as a hollow cylinder and defines a cavity(104; 204), b. it comprises a negative electrode (105; 205) which is arranged in the cavity (104; 204), c. it comprises a separator (106; 206) which is arranged between the positive and the negative electrode (103, 105; 203, 205), d. it comprises a liquid electrolyte with which the electrodes (103, 105; 203, 205) and the separator (106; 206) are soaked, e. it comprises a first current collector (107; 207) for the negative electrode (105; 205), f. it comprises a second current collector for the positive electrode (103; 203), g. it comprises an at least two-part housing which encloses an interior space in which the positive electrode (103; 203) together with the negative electrode (105; 205) in the cavity (104; 204) and with the separator (106; 206) are arranged, h. a pin is provided as the first current collector (107; 207) inside the housing, i. a part of the housing (101; 201) serves as the second current collector, j. the pin (107; 207) has a first terminal section (107b; 207b) which is completely countersunk in the negative electrode (105; 205), and k. the pin (107; 207) has a second section (107c; 207c) within the housing, which section is not in direct contact with the negative electrode (105; 205) and which is directly adjoined to the first section (107b; 207b) 1. the battery comprises an insulator element (108; 208) which prevents direct contact of the electrolyte with the second section (107c; 207c).
A holder assembly, comprising: a first mounting hub having an upwardly extending hub body with an annular inner surface; a holder member having an upper collar portion surrounding an aperture and a lower mounting portion, wherein the lower mounting portion of the holder member is rotatably coupled to the first mounting hub at the annular inner surface thereof, and further wherein the holder member is vertically adjustable relative to the first mounting hub; a second mounting hub spaced-apart from the first mounting hub and having an upwardly extending hub body with an annular inner surface; and a brace member having a pedestal portion disposed over a mounting post, wherein the mounting post of the brace member is rotatably coupled to the second mounting hub at the annular inner surface thereof, and further wherein the brace member is vertically adjustable relative to the second mounting hub. a first mounting hub having an upwardly extending hub body with an annular inner surface; a holder member having an upper collar portion surrounding an aperture and a lower mounting portion, wherein the lower mounting portion of the holder member is rotatably coupled to the first mounting hub at the annular inner surface thereof, and further wherein the holder member is vertically adjustable relative to the first mounting hub; a second mounting hub spaced-apart from the first mounting hub and having an upwardly extending hub body with an annular inner surface; and a brace member having a pedestal portion disposed over a mounting post, wherein the mounting post of the brace member is rotatably coupled to the second mounting hub at the annular inner surface thereof, and further wherein the brace member is vertically adjustable relative to the second mounting hub.
Modular plate element for at least partly creating a wall, a ceiling and/or a floor of a room, having: - a first support element with at least one chamber for mechanical stabilization and for transporting heat by means of a fluid, and - a thermal coating for heating the room by means of low-temperature infrared technology, wherein the thermal coating comprises an electrically conductive mixture of substances, - a reflective element for reflecting infrared radiation; characterized in that the first support element comprises a fluid-conveying inner element and a supporting outer element formed as a plate; and wherein a bearing element formed as a plate is arranged on the first support element; and in that the bearing element is arranged on the side of the inner element facing away from the outer element. - a first support element with at least one chamber for mechanical stabilization and for transporting heat by means of a fluid, and - a thermal coating for heating the room by means of low-temperature infrared technology, wherein the thermal coating comprises an electrically conductive mixture of substances, - a reflective element for reflecting infrared radiation; characterized in that the first support element comprises a fluid-conveying inner element and a supporting outer element formed as a plate; and wherein a bearing element formed as a plate is arranged on the first support element; and in that the bearing element is arranged on the side of the inner element facing away from the outer element.
A method for indicating paging detection, performed by a base station, comprising: determining a User Equipment, UE, that needs to monitor a Paging Occasion, PO, or receive a paging message; sending Downlink Control Information, DCI, carrying a first information field to the UE, and indicating, by means of a correspondence between a value of the first information field and a paging detection parameter of the UE, that the UE needs to monitor a PO associated with the DCI or receive a paging message scheduled by the DCI; wherein the paging detection parameter is determined according to one or a combination of the following parameters: a UE identity, a number of Paging Frames, PFs, in one Discontinuous Reception, DRX, cycle, a number of POs for a PF, and a length of the first information field, characterized in that the paging detection parameter is equal to floor [UE_ID/(N*Ns)] mod L, where UE_ID is the UE identity, L is the length of the first information field, N is the number of PFs in one DRX cycle, and Ns is the number of POs for a PF. determining a User Equipment, UE, that needs to monitor a Paging Occasion, PO, or receive a paging message; sending Downlink Control Information, DCI, carrying a first information field to the UE, and indicating, by means of a correspondence between a value of the first information field and a paging detection parameter of the UE, that the UE needs to monitor a PO associated with the DCI or receive a paging message scheduled by the DCI; wherein the paging detection parameter is determined according to one or a combination of the following parameters: a UE identity, a number of Paging Frames, PFs, in one Discontinuous Reception, DRX, cycle, a number of POs for a PF, and a length of the first information field, characterized in that the paging detection parameter is equal to floor [UE_ID/(N*Ns)] mod L, where UE_ID is the UE identity, L is the length of the first information field, N is the number of PFs in one DRX cycle, and Ns is the number of POs for a PF. a UE identity, a number of Paging Frames, PFs, in one Discontinuous Reception, DRX, cycle, a number of POs for a PF, and a length of the first information field, characterized in that the paging detection parameter is equal to floor [UE_ID/(N*Ns)] mod L, where UE_ID is the UE identity, L is the length of the first information field, N is the number of PFs in one DRX cycle, and Ns is the number of POs for a PF.
A multipath valve body for a valve arrangement, the multipath valve body comprising a plurality of valve seats (96, 98) which are accessible via a respective opening (86, 88), wherein a plurality of threaded bores are created around the respective opening (86, 88), wherein sections of a plurality of stud bolts (22a-c; 24) are arranged in the threaded bores for arrangement of a valve drive (6, 8) on the respective opening (6, 8), characterised in that at least one of the stud bolts assigned to the respective opening (86; 88) comprises an electronic data carrier for contactless identification of the respective valve seat (96, 98).
An amnion-derived cellular cytokine solution composition comprising physiologic concentrations of VEGF, TGFβ2, Angiogenin, PDGF, TIMP-1 and TIMP-2, wherein the physiologic concentration is ∼5.0-16ng/mL for VEGF, ∼3.5-4.5ng/mL for Angiogenin, ∼100-165pg/mL for PDGF, ∼2.5-2.7ng/mL for TGFβ2, ∼0.68μg/mL for TIMP-1 and ∼1.04μg/mL for TIMP-2, wherein the amnion-derived cellular cytokine solution composition is obtainable by the method of: (a) isolating amnion epithelial cells from the amnion of a placenta; (b) selecting AMP cells from the amnion epithelial cells; (c) culturing the AMP cells in animal-free based medium, wherein the medium is supplemented with clinical grade human albumin added up to a concentration of 10% until they reach confluence; (d) changing the culture medium; (e) culturing the cells in the medium for 1, 2, 3, 4, 5 or 6 days; and (f) collecting the culture medium step (e) to obtain amnion-derived cellular cytokine solution; wherein the medium of step (c) is Stemline I or II, Opti-pro, IMDM or DMEM. (a) isolating amnion epithelial cells from the amnion of a placenta; (b) selecting AMP cells from the amnion epithelial cells; (c) culturing the AMP cells in animal-free based medium, wherein the medium is supplemented with clinical grade human albumin added up to a concentration of 10% until they reach confluence; (d) changing the culture medium; (e) culturing the cells in the medium for 1, 2, 3, 4, 5 or 6 days; and (f) collecting the culture medium step (e) to obtain amnion-derived cellular cytokine solution;
A leveling system for a 3D printing system for laser dispensing in which a first frame of the leveling system is supported by respective actuators of a first set of actuators and supports an optical plane within which material dispensed by laser irradiation is disposed, and a second frame of the leveling system is supported by respective actuators of a second set of actuators and supports a receiving medium plane within which a substrate on which said material dispensed by laser irradiation is disposed, each of the actuators (106, 108) of the first and second sets configured to be operated independently under the control of a controller to displace a respective corner of one of said first or second frame in a direction orthogonal to a reference frame on which the leveling system rests and maintain parallelism of the optical and receiving medium planes, said leveling system characterized in that the first frame of the leveling system is supported at its corners by the respective actuators of the first set of actuators and the second frame of the leveling system is supported at its corners by the respective actuators of the second set of actuators and by said respective actuators of said first set of actuators so as to passively maintain a fixed gap between the optical and receiving medium planes.