mhurhangee/ep-ind-claims huggingface dataset:
A method for dual channel monitoring on a mobile radio device, the method characterized by comprising: Receiving, by the mobile radio device, a first speech signal over a first channel associated with a first active talkgroup to which the radio device is subscribed; receiving, by the mobile radio device, simultaneously with the first speech signal, a second speech signal over a second channel associated with a second active talkgroup to which the radio device is also subscribed; processing the first speech signal, by the mobile radio device, to generate a text transcription of the first speech signal; displaying, by the mobile radio device, the text transcription of the first speech signal on a display screen of the mobile radio device; and producing, by the radio device, from the second speech signal a first audible voice signal from a speaker that is operatively connected to the mobile radio device without producing a second audible voice signal from the first speech signal, wherein the producing the first audible voice signal is performed simultaneously with displaying the text transcription of the first speech signal, wherein the first channel and the second channel are distinct logical channels multiplexed over a single physical channel. Receiving, by the mobile radio device, a first speech signal over a first channel associated with a first active talkgroup to which the radio device is subscribed; receiving, by the mobile radio device, simultaneously with the first speech signal, a second speech signal over a second channel associated with a second active talkgroup to which the radio device is also subscribed; processing the first speech signal, by the mobile radio device, to generate a text transcription of the first speech signal; displaying, by the mobile radio device, the text transcription of the first speech signal on a display screen of the mobile radio device; and producing, by the radio device, from the second speech signal a first audible voice signal from a speaker that is operatively connected to the mobile radio device without producing a second audible voice signal from the first speech signal, wherein the producing the first audible voice signal is performed simultaneously with displaying the text transcription of the first speech signal, wherein the first channel and the second channel are distinct logical channels multiplexed over a single physical channel.
A method for operating a thermal flow sensor, wherein the thermal flow sensor has at least one sensor element (101, 102, 103) and an electronics unit, the method comprising the steps of: - creating a basic calibration of the thermal flow sensor, wherein, during the creation of the basic calibration, the thermal flow sensor senses at least a flow speed of a first measurement medium and creates a measured value of the flow speed, wherein the first measurement medium has defined first thermal parameters, comprising a first thermal conductivity and a first thermal capacity and flows with at least one defined value of a flow speed, and wherein the basic calibration causes the value, created by the thermal flow sensor, of the flow speed of the first measurement medium to be adjusted to the defined value of the flow speed of the first measurement medium; - determining second thermal parameters, comprising a second thermal conductivity and a second thermal capacity, of a second measurement medium by means of the thermal flow sensor; - calculating a correction variable, wherein the correction variable compensates deviations between the second thermal parameters of the second measurement medium and the first thermal parameters of the first measurement medium; and - sensing the flow speed of the second measurement medium and creating flow speed measured values compensated by means of the correction variable. - creating a basic calibration of the thermal flow sensor, wherein, during the creation of the basic calibration, the thermal flow sensor senses at least a flow speed of a first measurement medium and creates a measured value of the flow speed, wherein the first measurement medium has defined first thermal parameters, comprising a first thermal conductivity and a first thermal capacity and flows with at least one defined value of a flow speed, and wherein the basic calibration causes the value, created by the thermal flow sensor, of the flow speed of the first measurement medium to be adjusted to the defined value of the flow speed of the first measurement medium; - determining second thermal parameters, comprising a second thermal conductivity and a second thermal capacity, of a second measurement medium by means of the thermal flow sensor; - calculating a correction variable, wherein the correction variable compensates deviations between the second thermal parameters of the second measurement medium and the first thermal parameters of the first measurement medium; and - sensing the flow speed of the second measurement medium and creating flow speed measured values compensated by means of the correction variable.
A method performed by a user equipment, UE, the method comprising: receiving, by the UE from a base station, a UE-specific radio resource control, RRC, message indicating a sidelink, SL, communication resource configuration to be used by the UE for communicating SL control information and SL data between the UE and another UE; transmitting, by the UE, SL control information to the other UE using a communication resource indicated by the SL communication resource configuration received from the base station; and transmitting, by the UE, SL data to the other UE using the communication resource indicated by the SL communication resource configuration, wherein the SL communication resource configuration comprises an indication of a periodicity of the communication resource, and wherein the SL control information and the SL data are transmitted by the UE without the UE receiving from a base station, in a downlink control information, DCI, a grant of the communication resource, wherein the SL control information indicates the communication resource used for transmitting the SL data, wherein the SL communication resource configuration further comprises a transmission pattern that defines a pattern of time resources, frequency resources or time and frequency resources for transmitting the SL data to the other UE, and wherein the resources for transmitting the control information to the other UE are derived from the transmission pattern that defines the SL data resources to be used. receiving, by the UE from a base station, a UE-specific radio resource control, RRC, message indicating a sidelink, SL, communication resource configuration to be used by the UE for communicating SL control information and SL data between the UE and another UE; transmitting, by the UE, SL control information to the other UE using a communication resource indicated by the SL communication resource configuration received from the base station; and transmitting, by the UE, SL data to the other UE using the communication resource indicated by the SL communication resource configuration, wherein the SL communication resource configuration comprises an indication of a periodicity of the communication resource, and wherein the SL control information and the SL data are transmitted by the UE without the UE receiving from a base station, in a downlink control information, DCI, a grant of the communication resource, wherein the SL control information indicates the communication resource used for transmitting the SL data, wherein the SL communication resource configuration further comprises a transmission pattern that defines a pattern of time resources, frequency resources or time and frequency resources for transmitting the SL data to the other UE, and wherein the resources for transmitting the control information to the other UE are derived from the transmission pattern that defines the SL data resources to be used.
An asymmetric sulfonamide compound comprising at least: • a polycyclic group, Ar, consisting of two to six rings, at least one of which is aromatic, said rings each independently having from 4 to 6 members, said polycyclic group being able to include up to 18 heteroatoms, in particular selected from the group consisting of S, N and O; • a linear or branched, saturated or unsaturated aliphatic chain, said chain being optionally interrupted by one or more heteroatoms, by one or more metalloids, optionally substituted by one or more fluorine atoms, and/or containing one or more groups selected from the group consisting of hydroxyl, -NH 2 and oxo groups, said aliphatic chain comprising a linear sequence of at least six covalent bonds; • said group Ar and said aliphatic chain being covalently linked via a spacer represented by a sulfonamide unit -SO 2 -NH- or its anionic form -SO 2 -N - -, said sulfonamide being linked to said polycyclic group Ar via its nitrogen atom and to said aliphatic chain via its sulfur atom; and, if need be • a counter cation for the anionic form of the sulfonamide unit, selected from the alkali metals and the proton H + or H 3 O +. • a polycyclic group, Ar, consisting of two to six rings, at least one of which is aromatic, said rings each independently having from 4 to 6 members, said polycyclic group being able to include up to 18 heteroatoms, in particular selected from the group consisting of S, N and O; • a linear or branched, saturated or unsaturated aliphatic chain, said chain being optionally interrupted by one or more heteroatoms, by one or more metalloids, optionally substituted by one or more fluorine atoms, and/or containing one or more groups selected from the group consisting of hydroxyl, -NH 2 and oxo groups, said aliphatic chain comprising a linear sequence of at least six covalent bonds; • said group Ar and said aliphatic chain being covalently linked via a spacer represented by a sulfonamide unit -SO 2 -NH- or its anionic form -SO 2 -N - -, said sulfonamide being linked to said polycyclic group Ar via its nitrogen atom and to said aliphatic chain via its sulfur atom; and, if need be • a counter cation for the anionic form of the sulfonamide unit, selected from the alkali metals and the proton H + or H 3 O +.
A mobile terminal comprising: a terminal main body; a display unit disposed on a front surface of the main body and configured to display an image (200, 200a, 200b); a sensing unit mounted in the main body and comprising a camera sensor configured to sense the user's eyes direction and further comprising a movement sensor configured to sense a movement of the main body; a controller configured to control a display direction of the image (200, 200a, 200b) displayed on the display unit such that the image (200, 200a, 200b) is maintained in an output direction with respect to the user wherein the controller analyzes a direction of the user's eyes with respect to the main body, and rotates the image (200, 200a, 200b) displayed on the display unit such that the direction of the rotated image (200, 200a, 200b) corresponds to the direction of the user's eyes, wherein edge regions (210a, 210b, 210c, 210d) exceeding edges of the rotated image (200, 200a, 200b) are displayed, characterized in that at least portions or thumbnails (211, 212, 213, 214, 215, 216) of different images which are included in a group including the image (200, 200a, 200b) are newly displayed in the edge regions (210a, 210b, 210c, 210d); and wherein, when a touch input is input in a direction from one of the edge regions (210a, 210b, 210c, 210d) to the center of the rotated image (200, 200a, 200b), a new image is displayed instead of the current, rotated image; wherein the new image is the image of which a portion or thumbnail has been displayed in the one of the edge regions (210a, 210b, 210c, 210d). a terminal main body; a display unit disposed on a front surface of the main body and configured to display an image (200, 200a, 200b); a sensing unit mounted in the main body and comprising a camera sensor configured to sense the user's eyes direction and further comprising a movement sensor configured to sense a movement of the main body; a controller configured to control a display direction of the image (200, 200a, 200b) displayed on the display unit such that the image (200, 200a, 200b) is maintained in an output direction with respect to the user wherein the controller analyzes a direction of the user's eyes with respect to the main body, and rotates the image (200, 200a, 200b) displayed on the display unit such that the direction of the rotated image (200, 200a, 200b) corresponds to the direction of the user's eyes, wherein edge regions (210a, 210b, 210c, 210d) exceeding edges of the rotated image (200, 200a, 200b) are displayed, characterized in that at least portions or thumbnails (211, 212, 213, 214, 215, 216) of different images which are included in a group including the image (200, 200a, 200b) are newly displayed in the edge regions (210a, 210b, 210c, 210d); and wherein, when a touch input is input in a direction from one of the edge regions (210a, 210b, 210c, 210d) to the center of the rotated image (200, 200a, 200b), a new image is displayed instead of the current, rotated image; wherein the new image is the image of which a portion or thumbnail has been displayed in the one of the edge regions (210a, 210b, 210c, 210d).
A light-emitting ceramic, wherein the light-emitting ceramic comprises a YAG substrate and light-emitting centers and scattering particles uniformly dispersed in the YAG substrate, the light-emitting centers being lanthanide element doped YAG fluorescent powder particles having a grain size of 10-20 μm, the scattering particles having a particle size of 20-50 nm, the YAG substrate being a lanthanide element doped YAG ceramic, the YAG substrate having a smaller grain size than the YAG fluorescent powder particles, and an amount of the lanthanide element doped in the YAG substrate being smaller than an amount of the lanthanide element doped in the YAG fluorescent power particles, and wherein the scattering particles account for 1%-10% of a total mass of the light-emitting ceramic.
A method for determining cumulative foreign object characteristics during fabrication of a composite structure, comprising: recording, in a data storage unit, images of sequential segments of a composite structure during placement of the composite structure; analyzing, by a processor, the recorded images for detecting foreign objects on the composite structure comprising: analyzing each of the recorded images for determining dimensional attributes of each foreign object detected on the composite structure, the dimensional attributes including a length, a height and a shape of each foreign object detected on the composite structure; and identifying a type of each foreign object detected on the composite structure from the determined dimensional attributes; determining, by software in the processor, a cumulative total for each type of foreign object detected on the composite structure; and providing the cumulative total for each type of foreign object to a user. recording, in a data storage unit, images of sequential segments of a composite structure during placement of the composite structure; analyzing, by a processor, the recorded images for detecting foreign objects on the composite structure comprising: analyzing each of the recorded images for determining dimensional attributes of each foreign object detected on the composite structure, the dimensional attributes including a length, a height and a shape of each foreign object detected on the composite structure; and identifying a type of each foreign object detected on the composite structure from the determined dimensional attributes; analyzing each of the recorded images for determining dimensional attributes of each foreign object detected on the composite structure, the dimensional attributes including a length, a height and a shape of each foreign object detected on the composite structure; and identifying a type of each foreign object detected on the composite structure from the determined dimensional attributes; determining, by software in the processor, a cumulative total for each type of foreign object detected on the composite structure; and providing the cumulative total for each type of foreign object to a user.
A game controller for performing a game operation by holding the game controller with both hands, the game controller comprising: a main body housing; a first grip member connected to the main body housing and configured to be held by one hand of a user; a second grip member separate from the first grip member, connected to the main body housing, and configured to be held by the other hand of the user; a first vibrator provided inside the first grip member; and a second vibrator provided inside the second grip member, wherein the first vibrator comes into direct contact with the first grip member and comes into contact with the main body housing through a first buffer member, and the second vibrator comes into direct contact with the second grip member and comes into contact with the main body housing through a second buffer member. a main body housing; a first grip member connected to the main body housing and configured to be held by one hand of a user; a second grip member separate from the first grip member, connected to the main body housing, and configured to be held by the other hand of the user; a first vibrator provided inside the first grip member; and a second vibrator provided inside the second grip member, wherein the first vibrator comes into direct contact with the first grip member and comes into contact with the main body housing through a first buffer member, and the second vibrator comes into direct contact with the second grip member and comes into contact with the main body housing through a second buffer member.
An advance guard rail for securing between opposed scaffolding or mobile tower frames, the advance guard rail comprising: a planar frame body formed by a plurality of co-planar members comprising at least one horizontal upper rail bar, and at least one diagonal bar coupled to and at an oblique angle to said at least one horizontal upper rail bar; a first hook provided at a first end of said horizontal rail bar; a second hook provided at the free end of said diagonal bar, said first and second hooks (46,48) are arranged such that said first hook is adapted to be coupled to a first bar of a first scaffolding or mobile tower frame to form a pivot point, said first bar running in a plane orthogonal to the plane of said frame body; and such that said second hook can be brought to couple with a second bar of a scaffolding or mobile tower frame by rotation of said advance guard rail relative to said first scaffolding or mobile tower frame about said pivot point, said second bar running in a plane orthogonal to the plane of said frame body; characterised in that the guard rail comprises at least one co-planar brace member having a bracing clamp, said brace member having a first end and a second end (42a,42b), said first end hingedly coupled to said frame body, said bracing clamp provided at said second end of said brace member, wherein said brace member is adapted to be rotated within the plane of said frame body relative to said frame body to allow said bracing clamp to releasably secure to an orthogonal bar of one of said opposed scaffolding or mobile tower frames. a planar frame body formed by a plurality of co-planar members comprising at least one horizontal upper rail bar, and at least one diagonal bar coupled to and at an oblique angle to said at least one horizontal upper rail bar; a first hook provided at a first end of said horizontal rail bar; a second hook provided at the free end of said diagonal bar, said first and second hooks (46,48) are arranged such that said first hook is adapted to be coupled to a first bar of a first scaffolding or mobile tower frame to form a pivot point, said first bar running in a plane orthogonal to the plane of said frame body; and such that said second hook can be brought to couple with a second bar of a scaffolding or mobile tower frame by rotation of said advance guard rail relative to said first scaffolding or mobile tower frame about said pivot point, said second bar running in a plane orthogonal to the plane of said frame body; characterised in that the guard rail comprises at least one co-planar brace member having a bracing clamp, said brace member having a first end and a second end (42a,42b), said first end hingedly coupled to said frame body, said bracing clamp provided at said second end of said brace member, wherein said brace member is adapted to be rotated within the plane of said frame body relative to said frame body to allow said bracing clamp to releasably secure to an orthogonal bar of one of said opposed scaffolding or mobile tower frames.
A sample aspirating apparatus capable of aspirating a sample from both a capped container with a cap and an uncapped container, the sample aspirating apparatus comprising: a pipette which aspirates a sample, wherein the pipette is able to penetrate a cap of a capped container; a driving section which moves the pipette upward and downward; and a crash sensor which detects a crash of the pipette with an obstacle; characterised in that: the sample aspirating apparatus further comprises: a cap sensor which detects the cap of the capped container; and a controller which controls the driving section to move the pipette, and stop the pipette when the crash sensor detects a crash by the pipette, wherein when aspirating a sample in a container with a cap which has been detected by the cap sensor, the controller controls the driving section to move the pipette downward regardless of the detection by the crash sensor and thereby cause the pipette to penetrate the cap, and wherein when aspirating a sample from a container with a cap which has been detected by the cap sensor, the controller controllably moves the pipette based on the detection by the crash sensor until the tip of the pipette reaches a predetermined position above the cap, then moves the pipette downward from the predetermined position regardless of the detection by the crash sensor. a pipette which aspirates a sample, wherein the pipette is able to penetrate a cap of a capped container; a driving section which moves the pipette upward and downward; and a crash sensor which detects a crash of the pipette with an obstacle; characterised in that: the sample aspirating apparatus further comprises: a cap sensor which detects the cap of the capped container; and a controller which controls the driving section to move the pipette, and stop the pipette when the crash sensor detects a crash by the pipette, wherein when aspirating a sample in a container with a cap which has been detected by the cap sensor, the controller controls the driving section to move the pipette downward regardless of the detection by the crash sensor and thereby cause the pipette to penetrate the cap, and wherein when aspirating a sample from a container with a cap which has been detected by the cap sensor, the controller controllably moves the pipette based on the detection by the crash sensor until the tip of the pipette reaches a predetermined position above the cap, then moves the pipette downward from the predetermined position regardless of the detection by the crash sensor.