mhurhangee/ep-ind-claims huggingface dataset:
A cab for a construction machine comprising: a floor plate; an operation seat disposed on the floor plate so as to allow a position of the operation seat to be adjusted in a front-rear direction relatively to the floor plate; a control box located on a lateral side of the operation seat, the control box including a box body extending in the front-rear direction on the lateral side of the operation seat, and an operation lever protruding upward beyond an upper surface of a front part of the box body to receive an operation by an operator sitting on the operation seat; characterised in that the box body includes a portable communication terminal holding portion that receives insertion of a portable communication terminal at a position on a front side of the operation lever and holds the inserted portable communication terminal while exposing at least a part of the portable communication terminal above the box body; and the control box is disposed on the floor plate so as to allow a position of the control box to be adjusted relatively to the floor plate in the front-rear direction, and the operation seat is disposed so as to allow a position of the operation seat to be adjusted in the front-rear direction relative to the control box. a floor plate; an operation seat disposed on the floor plate so as to allow a position of the operation seat to be adjusted in a front-rear direction relatively to the floor plate; a control box located on a lateral side of the operation seat, the control box including a box body extending in the front-rear direction on the lateral side of the operation seat, and an operation lever protruding upward beyond an upper surface of a front part of the box body to receive an operation by an operator sitting on the operation seat; characterised in that the box body includes a portable communication terminal holding portion that receives insertion of a portable communication terminal at a position on a front side of the operation lever and holds the inserted portable communication terminal while exposing at least a part of the portable communication terminal above the box body; and the control box is disposed on the floor plate so as to allow a position of the control box to be adjusted relatively to the floor plate in the front-rear direction, and the operation seat is disposed so as to allow a position of the operation seat to be adjusted in the front-rear direction relative to the control box.
A radio resource monitoring method for D2D discovery by a terminal, wherein the terminal is located in a serving cell controlled by an equipment having base station functionality, and wherein the radio resource monitoring method comprises: receiving target radio resources transmitted from the equipment having base station functionality, wherein the target radio resources indicate the D2D discovery resource pool of the serving cell and any of a plurality of neighboring cells adjacent to the serving cell, and are obtained by differentiating, at the equipment having base station functionality, a first radio resource corresponding to the serving cell from a second radio resource corresponding to any of the plurality of neighboring cells, whereby the terminal is configured to identify a radio resource belonging to any cell; obtaining current information of the terminal, and determining a monitoring frequency of a neighboring cell in the plurality of neighboring cells according to (i) the current information of the terminal and (ii) monitored reference signal received power (RSRP) and/or monitored reference signal received quality (RSRQ) of the neighboring cell, wherein the current information comprises the mobility of the terminal; and determining the second radio resource of the neighboring cell according to the target radio resources, and monitoring the second radio resource of the neighboring cell at the monitoring frequency determined for the neighboring cell. receiving target radio resources transmitted from the equipment having base station functionality, wherein the target radio resources indicate the D2D discovery resource pool of the serving cell and any of a plurality of neighboring cells adjacent to the serving cell, and are obtained by differentiating, at the equipment having base station functionality, a first radio resource corresponding to the serving cell from a second radio resource corresponding to any of the plurality of neighboring cells, whereby the terminal is configured to identify a radio resource belonging to any cell; obtaining current information of the terminal, and determining a monitoring frequency of a neighboring cell in the plurality of neighboring cells according to (i) the current information of the terminal and (ii) monitored reference signal received power (RSRP) and/or monitored reference signal received quality (RSRQ) of the neighboring cell, wherein the current information comprises the mobility of the terminal; and determining the second radio resource of the neighboring cell according to the target radio resources, and monitoring the second radio resource of the neighboring cell at the monitoring frequency determined for the neighboring cell.
A light projector module for projecting an image, comprising: a support; a light source supported by the support and configured to emit in a beam path a light beam carrying said image; a micro-electro-mechanical-system, MEMS, mirror supported by the support and configured to deflect the emitted light beam received over the beam path as a deflected light beam; a waveguide supported by the support and having two parallel sides (24, 27), the first side having an in-coupling area for receiving the deflected light beam and the second side having an out-coupling area for projecting the deflected light beam with enlarged cross section; and a static mirror in the beam path from the light source to the MEMS mirror to fold the beam path about an angle of folding (δ); wherein the static mirror lies beside the first side of the waveguide, characterised in that the support is a housing enclosing at least the light source, the MEMS mirror, the waveguide, and the static mirror, wherein the housing has a window exposing the out-coupling area of the waveguide, the housing is attached to or integrated into a temple of a spectacle frame, and the beam path from the light source to the static mirror runs substantially parallel to the longitudinal axis of the temple. a support; a light source supported by the support and configured to emit in a beam path a light beam carrying said image; a micro-electro-mechanical-system, MEMS, mirror supported by the support and configured to deflect the emitted light beam received over the beam path as a deflected light beam; a waveguide supported by the support and having two parallel sides (24, 27), the first side having an in-coupling area for receiving the deflected light beam and the second side having an out-coupling area for projecting the deflected light beam with enlarged cross section; and a static mirror in the beam path from the light source to the MEMS mirror to fold the beam path about an angle of folding (δ); wherein the static mirror lies beside the first side of the waveguide, characterised in that the support is a housing enclosing at least the light source, the MEMS mirror, the waveguide, and the static mirror, wherein the housing has a window exposing the out-coupling area of the waveguide, the housing is attached to or integrated into a temple of a spectacle frame, and the beam path from the light source to the static mirror runs substantially parallel to the longitudinal axis of the temple.
Method for reconfiguring the information relating to redundant grand master clocks in a generalized Precision Time Protocol gPTP network by sending a teardown message from one network element (A, B, C, D) to an adjacent network element, which teardown message changes the information relating to at least one of the redundant grand master clocks (A, D) in the network elements of the gPTP network, wherein the teardown message is a first Announce+ message which, as information, contains only the clock ID and the serial number of the grand master clock before the change, wherein thereafter a new announcement message is sent, which is a second Announce+ message and contains changed results relating to a selection of a new best grand master clock and the information from the teardown message, and, after receiving the teardown message, the information relating to the affected grand master clocks is removed from the local database of the receiving network element and the selection of the new best grand master clock is carried out.
A glue applicator roll position adjustment device of a single facer, which is provided on a glue application device of a single facer including a pair of corrugating rolls (11,12) which corrugate a corrugating medium and a glue applicator roll which transfers and supplies glue to peak-shaped ridge tops of a corrugating medium which is wound around a downstream-side corrugating roll after the corrugation is performed and is conveyed, and adjusts the position of the glue applicator roll, comprising: support sections which support ends of the glue applicator roll; and parallel adjustment mechanisms which are provided on the support sections and adjust the position of the glue applicator roll to be parallel with the downstream-side corrugating roll, wherein the parallel adjustment mechanisms comprise an actuator (51,52) which moves each end of the glue applicator roll, and a control device which controls operation of the actuator (51,52), the control device comprises a contact-assessing unit which assesses whether or not the end of the glue applicator roll comes into contact with the downstream-side corrugating roll, characterised in that the control device further comprises an operation-stopping unit which stops the operation of the actuator (51,52) if the contact-assessing unit assesses that the end of the glue applicator roll comes into contact with the downstream-side corrugating roll, and the contact-assessing unit assesses that the end of the glue applicator roll comes into contact if the end of the glue applicator roll is moved by the operation of the actuator (51,52) in a direction in which the end of the glue applicator roll comes into contact with the downstream-side corrugating roll and the end of the glue applicator roll is brought into an immovable state under restriction of the downstream-side corrugating roll. support sections which support ends of the glue applicator roll; and parallel adjustment mechanisms which are provided on the support sections and adjust the position of the glue applicator roll to be parallel with the downstream-side corrugating roll, wherein a contact-assessing unit which assesses whether or not the end of the glue applicator roll comes into contact with the downstream-side corrugating roll, characterised in that the control device further comprises an operation-stopping unit which stops the operation of the actuator (51,52) if the contact-assessing unit assesses that the end of the glue applicator roll comes into contact with the downstream-side corrugating roll, and
A sliding bearing comprising: an upper casing, a lower casing, and a sliding bearing piece disposed between said upper casing and said lower casing, characterized in that, said lower casing includes: a lower casing base portion; an annular protruding portion which protrudes upwardly from an upper surface of the lower casing base portion; and at least one projecting portion which projects radially from the lower casing base portion, wherein said sliding bearing piece includes: a first sliding bearing piece portion; a second sliding bearing piece portion which is suspended from the first sliding bearing piece portion; and a corrugated meshing portion which is formed on a lower portion of the second sliding bearing piece portion, said sliding bearing piece being disposed between said upper casing and said lower casing such that the corrugated meshing portion is meshed with the projecting portion of said lower casing, said lower casing being slidably superposed on said upper casing through the first and second sliding bearing piece portions (67, 73).
An agricultural machine, comprising: a chassis; a trail frame being part of the chassis; a field suspension system for carrying the chassis; and a transport arrangement coupled to the trail frame of the chassis for deployment to support the agricultural machine in a road transport mode, the transport arrangement includes: a first suspension element being pivotal about a first axis; the first axis axis being perpendicular to the trail frame;and a second suspension element being pivotal about a second axis; characterized in that: the second axis being parallel to the trail frame; and the second suspension element additionally being pivotal about the first axis. a chassis; a trail frame being part of the chassis; a field suspension system for carrying the chassis; and a transport arrangement coupled to the trail frame of the chassis for deployment to support the agricultural machine in a road transport mode, the transport arrangement includes: a first suspension element being pivotal about a first axis; the first axis axis being perpendicular to the trail frame;and a second suspension element being pivotal about a second axis; characterized in that: the second axis being parallel to the trail frame; and the second suspension element additionally being pivotal about the first axis. the second axis being parallel to the trail frame; and the second suspension element additionally being pivotal about the first axis.
A method for constructing a marker diversity profile database comprising the steps of: a) sequencing a plurality of rRNA markers from a sample, wherein said sample comprises a microbial population, and wherein each rRNA marker comprises a microbial rRNA gene polymorphic sequence, and wherein the plurality of rRNA markers provides an accurate representation of the microbial population of said sample; b) determining the abundance, in said sample, of each of said plurality of rRNA markers; c) transducing the abundance of each rRNA marker into an electrical output signal; d) storing said electrical output signals produced in step c) in a matrix data structure and associating in said structure each output signal with the corresponding sequence of the rRNA marker from whose abundance the output signal was transduced; e) providing the abundances of one or more sample parameters that are associated with said sample; f) transducing the abundances of each sample parameter into an electrical output signal; g) storing said electrical output signals produced in step f) in a matrix data structure and associating in said structure each output signal with the sample parameter from whose abundance the output signal was transduced; h) designating the electrical output signals produced in step c) corresponding to the plurality of rRNA marker abundances and the electrical output signals produced in step f) corresponding to the one or more sample parameter abundances, as an MDP; and i) repeating steps a-h for a plurality of other samples, and designating the plurality of MDPs stored in said data structure as an MDP database. a) sequencing a plurality of rRNA markers from a sample, wherein said sample comprises a microbial population, and wherein each rRNA marker comprises a microbial rRNA gene polymorphic sequence, and wherein the plurality of rRNA markers provides an accurate representation of the microbial population of said sample; b) determining the abundance, in said sample, of each of said plurality of rRNA markers; c) transducing the abundance of each rRNA marker into an electrical output signal; d) storing said electrical output signals produced in step c) in a matrix data structure and associating in said structure each output signal with the corresponding sequence of the rRNA marker from whose abundance the output signal was transduced; e) providing the abundances of one or more sample parameters that are associated with said sample; f) transducing the abundances of each sample parameter into an electrical output signal; g) storing said electrical output signals produced in step f) in a matrix data structure and associating in said structure each output signal with the sample parameter from whose abundance the output signal was transduced; h) designating the electrical output signals produced in step c) corresponding to the plurality of rRNA marker abundances and the electrical output signals produced in step f) corresponding to the one or more sample parameter abundances, as an MDP; and i) repeating steps a-h for a plurality of other samples, and designating the plurality of MDPs stored in said data structure as an MDP database.
A dental mill blank comprising a pre-sintered porous zirconia material, • the porous pre-sintered zirconia material having a Vickers hardness from 25 to 150, the dental mill blank comprising means for reversible attaching it to a machining device, characterized in that the porous pre-sintered zirconia material shows a N2 adsorption and/or desorption of isotherm type IV according to IUPAC classification, • the porous pre-sintered zirconia material having a Vickers hardness from 25 to 150,
Linear drive with a drive unit which has a drive housing, and an output slide mounted on the outside of the drive housing and in this respect guided with linear movement capability to execute a stroke movement oriented in the axial direction of a longitudinal axis, wherein the output slide has a one-piece slide body which has a guide section, U-shaped in cross-section, comprised of a plate-shaped central section and guide legs (33, 34) fitted to opposite long sides of the former and extending downwards towards the drive housing, together with a driving leg arranged on an end face of the central section and likewise extending downwards, wherein the guide legs (33, 34) serve for linear guidance of the output slide and the driving leg is connected for driving purposes to at least one drive section of the drive unit extending out of the drive housing, characterised in that the one-piece slide body is a bent sheet metal part, wherein both the guide legs (33, 34) and also the driving leg are formed by sections (33a, 34a, 52a) of the slide body bent around relative to the central section.
A method for specifying a material color of a dental restoration, wherein the desired tooth color is entered into a corresponding choice box by the user as a target tooth color, which color is specified by the user based on a tooth key as the tooth color of a neighboring tooth or the neighboring teeth, wherein when specifying the material color of the dental restoration based on the target tooth color the material color of the selected materials of the dental restoration material is changed based on parameters of the color of a stump and/or an abutment, the layer thickness of the dental restoration, the type of dental restoration, if applicable, the processing technique, wherein specification of the material color of the dental restoration and selection of the appropriate dental restoration material is controlled by a computer program, and wherein once one parameter is selected, the next parameter is automatically provided, wherein the selection is limited based on the target tooth color and parameters dependent thereon, such as layer thickness, restoration type, i.e. the indication and the material, and when all selections have been performed, display of the result of the material selection is activated rather than activating the choice boxes.
A method, comprising: flowing a material through a conduit while exciting a vibration mode of the conduit using at least a first driver and a second driver spaced along the conduit; measuring the relative motion of the vibrating conduit using both the first driver and the second driver; measuring a relative phase of a right eigenvector while exciting the vibration mode of the conduit; determining the material flow through the conduit using the relative phase of a right eigenvector corrected by a zero offset the method further comprising: measuring a relative phase of the left eigenvector for the conduit using the relative motion of the vibrating conduit by using alternately one of the first driver and the second driver; determining a new zero offset without stopping the material flow through the conduit; and determining the material flow through the conduit using the relative phase of a right eigenvector corrected by the new zero offset. flowing a material through a conduit while exciting a vibration mode of the conduit using at least a first driver and a second driver spaced along the conduit; measuring the relative motion of the vibrating conduit using both the first driver and the second driver; measuring a relative phase of a right eigenvector while exciting the vibration mode of the conduit; determining the material flow through the conduit using the relative phase of a right eigenvector corrected by a zero offset the method further comprising: measuring a relative phase of the left eigenvector for the conduit using the relative motion of the vibrating conduit by using alternately one of the first driver and the second driver; determining a new zero offset without stopping the material flow through the conduit; and determining the material flow through the conduit using the relative phase of a right eigenvector corrected by the new zero offset. measuring a relative phase of the left eigenvector for the conduit using the relative motion of the vibrating conduit by using alternately one of the first driver and the second driver; determining a new zero offset without stopping the material flow through the conduit; and determining the material flow through the conduit using the relative phase of a right eigenvector corrected by the new zero offset.
A method comprising: displaying first visual display elements on a touch screen of an electronic device, wherein one of the first visual display elements is a folder icon displayed in a first size, a size of the folder icon is changeable, and the folder icon contains second visual display elements that are displayed in the folder icon after the folder icon being enlarged based on a touch and drag input, above a threshold, to a second size, wherein the second visual display elements are icons representing files included in a folder corresponding to the folder icon; as the size of the folder icon is changed from the first size to the second size, displaying the second visual display elements in a third size in the enlarged region of the folder icon; and as the second visual display elements are enlarged based on another touch and drag input on the second visual display elements, displaying an execution result of a file represented by the second visual display elements on the enlarged region of the second visual display elements. displaying first visual display elements on a touch screen of an electronic device, wherein one of the first visual display elements is a folder icon displayed in a first size, a size of the folder icon is changeable, and the folder icon contains second visual display elements that are displayed in the folder icon after the folder icon being enlarged based on a touch and drag input, above a threshold, to a second size, wherein the second visual display elements are icons representing files included in a folder corresponding to the folder icon; as the size of the folder icon is changed from the first size to the second size, displaying the second visual display elements in a third size in the enlarged region of the folder icon; and as the second visual display elements are enlarged based on another touch and drag input on the second visual display elements, displaying an execution result of a file represented by the second visual display elements on the enlarged region of the second visual display elements.