mhurhangee/patent-ind-claim-en huggingface dataset:
Connection fitting for releasably attaching a first planar furniture part (T1) to a second planar furniture part (T2), the connection fitting at least comprising: - a mounting base portion for attaching the connection fitting to one of the two furniture parts (T1; T2), - a locking arm having a first end portion (A1) and a second end portion (A2) opposite the first end portion, and - a locking means which has a locking pin , - the locking arm at the first end portion (A1) being arranged on the mounting base portion so as to be pivotable (P1) about a rotational axis (DA), and - the locking means being arranged on the second end portion (A2) of the locking arm such that it can be moved in the radial direction (P2) relative to the locking arm , and - the second end portion (A2) of the locking arm having a through-hole , extending in parallel with the rotational axis (DA), through which hole the locking pin of the locking means passes, characterized in that the locking arm can be pivoted (P1) through 180° about the rotational axis (DA), an opening being provided on the top of the mounting base portion , into which opening the locking pin of the locking means can be at least partly brought into engagement. - a mounting base portion for attaching the connection fitting to one of the two furniture parts (T1; T2), - a locking arm having a first end portion (A1) and a second end portion (A2) opposite the first end portion, and - a locking means which has a locking pin , - the locking arm at the first end portion (A1) being arranged on the mounting base portion so as to be pivotable (P1) about a rotational axis (DA), and - the locking means being arranged on the second end portion (A2) of the locking arm such that it can be moved in the radial direction (P2) relative to the locking arm , and - the second end portion (A2) of the locking arm having a through-hole , extending in parallel with the rotational axis (DA), through which hole the locking pin of the locking means passes,
A heat-absorbing glass plate which comprises soda lime silica glass containing coloring components, the coloring components containing, as represented by mass% based on the following oxides, from 0.49 to 0.61% of total iron as calculated as Fe 2 O 3 and from 0.2 to 0.41% of TiO 2 , which contains no CoO, Cr 2 O 3 , V 2 O 5 , MnO nor CeO 2 at all besides inevitable impurities, which has a mass proportion of bivalent iron as calculated as Fe 2 O 3 in total iron as calculated as Fe 2 O 3 of from 48 to 57%, which has a solar transmittance of at most 42% calculated as 4 mm thickness as defined in JIS R3106 , which has a visible light transmittance (by illuminant A) of at least 70% calculated as 4 mm thickness as defined in JIS R3106 , and which provides a transmitted light having a dominant wavelength of from 492 to 500 nm as defined in JIS Z8701 .
An external bone or tissue fixation system , comprising, an elongate beam element defining an axis and comprising an axially extending threaded track portion ; and at least one drivable fixation clamp assembly comprising a main housing with a central bore, a driving housing rotatably coupled within an opening of the main housing , a threaded driving member in communication with the driving housing , and a clamp assembly selectively rotatably coupled to the main housing and configured to clamp to at least one fixation member , wherein the elongate beam element extends axially through the central bore of the main housing , wherein the threaded driving member is movable with respect to the central bore via rotation of the driving housing between an engaged state with the threaded track portion and a disengaged state from the threaded track portion , and wherein rotation of the threaded driving member in the engaged state axially translates the at least one drivable fixation clamp assembly along the beam element .
A method for determining an initial sequence for scrambling data, performed by User Equipment, UE , the method comprising: receiving (S11) a reuse factor identification, ID, library of reuse factor IDs for Non-Orthogonal Multiple Access, NOMA, and a library of time-frequency resources broadcast by a base station, BS ; selecting (S 12) a time-frequency resource in the library of time-frequency resources, selecting a reuse factor ID in the reuse factor ID library; and determining (S 13), according to the reuse factor ID selected as well as a cell ID number of a cell where the UE camps, an initial sequence for scrambling uplink data to be transmitted to the BS on the time-frequency resource, characterized in that the reuse factor IDs in the reuse factor ID library each identify at least one of a power rating, an interleaver, or a spreading code. receiving (S11) a reuse factor identification, ID, library of reuse factor IDs for Non-Orthogonal Multiple Access, NOMA, and a library of time-frequency resources broadcast by a base station, BS ; selecting (S 12) a time-frequency resource in the library of time-frequency resources, selecting a reuse factor ID in the reuse factor ID library; and determining (S 13), according to the reuse factor ID selected as well as a cell ID number of a cell where the UE camps, an initial sequence for scrambling uplink data to be transmitted to the BS on the time-frequency resource, characterized in that the reuse factor IDs in the reuse factor ID library each identify at least one of a power rating, an interleaver, or a spreading code.
A submersible vessel configured to inspect an elongated inspection target disposed on a water bottom, the submersible vessel comprising: a hull; a propulsor configured to propel the hull; a front sensor configured to sequentially detect locations of the inspection target in front of the hull; a controller configured to control the propulsor such that the hull passes through above the detected locations; a movable arm attached to an arm reference point of the hull; an inspection tool that is disposed at the movable arm and configured to inspect the inspection target; and a position detector configured to acquire positional information including at least one of a position, an attitude, or a speed of the hull, wherein: based on the positional information acquired by the position detector, the controller is configured to estimate a pass-through position of the arm reference point after a predetermined time; and the controller is configured to control the movable arm such that before the predetermined time elapses, a positional relation between the arm reference point and the inspection tool becomes a positional relation between the estimated pass-through position and a target point on or above each location. a hull; a propulsor configured to propel the hull; a front sensor configured to sequentially detect locations of the inspection target in front of the hull; a controller configured to control the propulsor such that the hull passes through above the detected locations; a movable arm attached to an arm reference point of the hull; an inspection tool that is disposed at the movable arm and configured to inspect the inspection target; and a position detector configured to acquire positional information including at least one of a position, an attitude, or a speed of the hull, wherein: based on the positional information acquired by the position detector, the controller is configured to estimate a pass-through position of the arm reference point after a predetermined time; and the controller is configured to control the movable arm such that before the predetermined time elapses, a positional relation between the arm reference point and the inspection tool becomes a positional relation between the estimated pass-through position and a target point on or above each location. based on the positional information acquired by the position detector, the controller is configured to estimate a pass-through position of the arm reference point after a predetermined time; and the controller is configured to control the movable arm such that before the predetermined time elapses, a positional relation between the arm reference point and the inspection tool becomes a positional relation between the estimated pass-through position and a target point on or above each location.
Bicycle pedal comprising a pedal body with a pedal axle and a pedal body frame which by means of two struts or side parts is fastened to a pedal axle sleeve and wherein the two side parts of the pedal body frame are bent or curved inwards into the pedal body frame and towards the pedal axis sleeve and the pedal frame is closed, characterised in that the side parts constitute flexible struts for fastening the pedal body frame to the pedal axle sleeve , wherein horizontal or lateral twisting or rotation of the pedal body frame relative to the pedal axle and to the pedal axle sleeve is made possible and wherein above and below the pedal axle sleeve the inwardly bent or curved side parts are connected to a further, corrugated and/or flexible strut .
A ceramic-and-polymer-compositely-coated lithium ion separator, comprising a polyolefin porous membrane, a ceramic coating coated onto one or both sides of the membrane surface, and a polymer coating coated onto the ceramic surface or the membrane surface, characterized in that the ceramic coating is made by following raw materials in parts by weight: 15-45 parts of a ceramic material, 0.5-8 parts of an aqueous dispersant, 1-10 parts of an aqueous binder, 1-5 parts of an aqueous binder emulsion, and 0.1-5 parts of an aqueous wetting agent.
A composition, comprising: a compound (A) represented by Formula ; and a compound (B) represented by Formula , wherein the compound (B) is contained in an amount of 0.00002 to 0.2 parts by mass with respect to 100 parts by mass of the compound (A), (R 1 -COO) n -R 2 -(NCO) m ... wherein R 1 is an ethylenically unsaturated group having 2 to 7 carbon atoms; R 2 is an (m+n)-valent hydrocarbon group having 1 to 7 carbon atoms and may contain an ether group; and n and m are each an integer of 1 or 2, wherein R is (-R 2 -(OCO-R 1 ), and R 1 and R 2 are the same as those in Formula . a compound (A) represented by Formula ; and a compound (B) represented by Formula , wherein the compound (B) is contained in an amount of 0.00002 to 0.2 parts by mass with respect to 100 parts by mass of the compound (A), (R 1 -COO) n -R 2 -(NCO) m ... wherein R 1 is an ethylenically unsaturated group having 2 to 7 carbon atoms; R 2 is an (m+n)-valent hydrocarbon group having 1 to 7 carbon atoms and may contain an ether group; and n and m are each an integer of 1 or 2, wherein R is (-R 2 -(OCO-R 1 ), and R 1 and R 2 are the same as those in Formula .
NMR probe head comprising one or more RF coils arranged around a vertical axis of symmetry (z), and an RF network , that are surrounded by an apparatus for shielding from external RF radiation comprising an electrically conductive shielding tube that is arranged along the z-axis and can be pushed around the RF coils and the RF network in the z direction towards a base disc of the NMR probe head , wherein a shielding disc is provided at an axial distance from the base disc , characterized in that in the mounted state, a tensible RF seal is arranged between the shielding disc and the shielding tube , which seal is geometrically designed such that, in a first mounting state, the shielding tube can be pushed over the shielding disc in an unbraced and force-free manner, and that, in a second mounting state, the RF seal can be mechanically braced between the shielding disc and the shielding tube such that an electrically conductive connection to the shielding tube is ensured over the periphery of the shielding disc .
A computer-implemented method for representing intensity levels indicative of a first type of sense of a subject by parameter values for a different second type of sense of the subject , comprising: determining a first parameter value for the second type of sense representing a first intensity level indicative of the first type of sense; characterised in that determining the first parameter value comprises: determining a plurality of parameter values for the second type of sense that are distinguishable to the subject based on Just-Noticeable-Differences , JNDs, of the second type of sense; and selecting one of the plurality of parameter values for the second type of sense as the first parameter value; the method further comprising: determining a second parameter value for the second type of sense representing a second intensity level indicative of the first type of sense with reference to the first parameter value; wherein the first parameter value differs from the second parameter value by at least one JND of the second type of sense of the subject . determining a first parameter value for the second type of sense representing a first intensity level indicative of the first type of sense; characterised in that determining the first parameter value comprises: determining a plurality of parameter values for the second type of sense that are distinguishable to the subject based on Just-Noticeable-Differences , JNDs, of the second type of sense; and selecting one of the plurality of parameter values for the second type of sense as the first parameter value; the method further comprising: determining a second parameter value for the second type of sense representing a second intensity level indicative of the first type of sense with reference to the first parameter value; wherein the first parameter value differs from the second parameter value by at least one JND of the second type of sense of the subject . determining a plurality of parameter values for the second type of sense that are distinguishable to the subject based on Just-Noticeable-Differences , JNDs, of the second type of sense; and selecting one of the plurality of parameter values for the second type of sense as the first parameter value; the method further comprising: determining a second parameter value for the second type of sense representing a second intensity level indicative of the first type of sense with reference to the first parameter value; wherein the first parameter value differs from the second parameter value by at least one JND of the second type of sense of the subject . determining a second parameter value for the second type of sense representing a second intensity level indicative of the first type of sense with reference to the first parameter value; wherein the first parameter value differs from the second parameter value by at least one JND of the second type of sense of the subject .
A metal honeycomb anchoring structure , said anchoring structure being formed of a plurality of strips assembled in pairs so as to define a plurality of cells between two adjacent strips, wherein each strip is divided along its length into a plurality of portions, including at least one series of planar assembly portions juxtaposed with and joined to a series of assembly portions of an adjacent strip by attachment means, each strip having a lower longitudinal edge intended for being pressed against a wall to be protected and an upper longitudinal edge (12a, 12'a) opposite the lower longitudinal edge, characterised in that it further comprises a plurality of protective tabs (16, 16', 16", 16a, 16b) connecting each pair of juxtaposed assembly portions , each protective tab (16, 16', 16", 16a, 16b) being secured to an assembly portion by a longitudinal junction line and each protective tab (16, 16', 16", 16a, 16b) extending towards the juxtaposed assembly portion , at least as far as said portion.
A secure element for securely processing digital information, said digital information being segmented and stored in a plurality of M segments in a memory external to the secure element , including: - a secure processor for securely processing the plurality of M segments of digital information ; - a system configured to load a segment of the plurality of M segments of digital information (Si) from the external memory into the secure element , and pre-process said segment of digital information by executing a cryptographic algorithm before processing said segment of digital information by the secure processor ; wherein the system is configured to determine an identification information of the segment of digital information that has been loaded, the determination of said identification information including obtaining a version number of said segment of digital information, and to execute the cryptographic algorithm by using said identification information; characterized in that the system is configured to load a version table (CtrlObj) containing the respective version numbers of the plurality of M segments of digital information, from the external memory into an internal memory of the secure element , and to read from the version table (CtrlObj) stored in the internal memory , the version number (Vi) of each segment of digital information that is loaded. - a secure processor for securely processing the plurality of M segments of digital information ; - a system configured to load a segment of the plurality of M segments of digital information (Si) from the external memory into the secure element , and pre-process said segment of digital information by executing a cryptographic algorithm before processing said segment of digital information by the secure processor ; wherein the system is configured to determine an identification information of the segment of digital information that has been loaded, the determination of said identification information including obtaining a version number of said segment of digital information, and to execute the cryptographic algorithm by using said identification information; characterized in that the system is configured to load a version table (CtrlObj) containing the respective version numbers of the plurality of M segments of digital information, from the external memory into an internal memory of the secure element , and to read from the version table (CtrlObj) stored in the internal memory , the version number (Vi) of each segment of digital information that is loaded.
A computer implemented method for determining at a server whether to send information to a first client in response to a change to a shared electronic document, the method comprising: receiving a first active region from the first client, wherein the first active region is a viewport of the first client, wherein the viewport is information related to the shared document displayed on the first client's computer display; receiving an indicia of change, the indicia of change indicating that a change to the shared electronic document has occurred, wherein the change has been made to an area outside of the first active region; determining whether to send the first client an update, wherein determining includes determining whether the change will affect the first active region; and if and only if the change will affect the viewport of the first client, determining relevant-change data to send to the first client and sending the relevant-change data to the first client. receiving a first active region from the first client, wherein the first active region is a viewport of the first client, wherein the viewport is information related to the shared document displayed on the first client's computer display; receiving an indicia of change, the indicia of change indicating that a change to the shared electronic document has occurred, wherein the change has been made to an area outside of the first active region; determining whether to send the first client an update, wherein determining includes determining whether the change will affect the first active region; and if and only if the change will affect the viewport of the first client, determining relevant-change data to send to the first client and sending the relevant-change data to the first client.
A service data transmission method comprising: receiving , by user equipment, a radio resource control RRC message that comprises preset semi-persistent scheduling SPS information and that is sent by a network device, wherein the preset SPS information is used to indicate a pre-configured SPS period, and the preset SPS information comprises at least two SPS pre-configurations and a pre-configuration index corresponding to each of the at least two SPS pre-configurations, and each of the at least two SPS pre-configurations comprises a pre-configured SPS period; receiving , by the user equipment, a control message sent by the network device, wherein the control message is used to indicate at least two SPS configurations, wherein the control message comprises the pre-configuration index corresponding to each of the at least two SPS pre-configurations; activating , by the user equipment, the at least two SPS configurations based on the control message, wherein the activating, by the user equipment, the at least two SPS configurations based on the control message comprises: activating, by the user equipment, an SPS configuration that matches the pre-configured SPS period of each SPS configuration; and transmitting , by the user equipment, corresponding service data based on each of the at least two activated SPS configurations. receiving , by user equipment, a radio resource control RRC message that comprises preset semi-persistent scheduling SPS information and that is sent by a network device, wherein the preset SPS information is used to indicate a pre-configured SPS period, and the preset SPS information comprises at least two SPS pre-configurations and a pre-configuration index corresponding to each of the at least two SPS pre-configurations, and each of the at least two SPS pre-configurations comprises a pre-configured SPS period; receiving , by the user equipment, a control message sent by the network device, wherein the control message is used to indicate at least two SPS configurations, wherein the control message comprises the pre-configuration index corresponding to each of the at least two SPS pre-configurations; activating , by the user equipment, the at least two SPS configurations based on the control message, wherein the activating, by the user equipment, the at least two SPS configurations based on the control message comprises: activating, by the user equipment, an SPS configuration that matches the pre-configured SPS period of each SPS configuration; and transmitting , by the user equipment, corresponding service data based on each of the at least two activated SPS configurations. activating, by the user equipment, an SPS configuration that matches the pre-configured SPS period of each SPS configuration; and transmitting , by the user equipment, corresponding service data based on each of the at least two activated SPS configurations.