mhurhangee/patent-ind-claim-en huggingface dataset:
A cap assembly for a second battery , comprising a cap plate and a terminal assembly , wherein the cap plate has an electrode lead-out hole and the terminal assembly comprises a terminal board , a fixing member , a deformable sheet , a conductive sheet and an isolator , wherein: the deformable sheet is attached to the terminal board ; the conductive sheet comprises a first portion , wherein the first portion is provided between the terminal board and the cap plate and an outer peripheral surface of the first portion protrudes out of an inner wall of the electrode lead-out hole ; an outer peripheral surface of the conductive sheet is surrounded by the isolator , and the conductive sheet is connected with the cap plate through the isolator ; the terminal board is fixed to a side of the cap plate through the fixing member and covers the electrode lead-out hole , and the terminal board is electrically connected with the first portion through the deformable sheet ; the deformable sheet is configured to deform to be electrically disconnected from the first portion in response to an increase in a pressure inside the secondary battery . the deformable sheet is attached to the terminal board ; the conductive sheet comprises a first portion , wherein the first portion is provided between the terminal board and the cap plate and an outer peripheral surface of the first portion protrudes out of an inner wall of the electrode lead-out hole ; an outer peripheral surface of the conductive sheet is surrounded by the isolator , and the conductive sheet is connected with the cap plate through the isolator ; the terminal board is fixed to a side of the cap plate through the fixing member and covers the electrode lead-out hole , and the terminal board is electrically connected with the first portion through the deformable sheet ; the deformable sheet is configured to deform to be electrically disconnected from the first portion in response to an increase in a pressure inside the secondary battery .
Method for operating a redundant automation system (AS) having two subsystems , wherein in redundant operation one of the subsystems operates as a master and assumes process control and the other subsystem operates as a reserve, wherein the master and the reserve are synchronised by way of means of communication and in the event of a loss of synchronisation, a. Process inputs of a process image of the master are compared with process inputs of a process image of the reserve , b. The communication of the reserve with additional components of the automation system (AS) is adjusted, c. If the master fails during a predefined period of time (Ts), the reserve assumes process control as the new master, characterised in that d. In the event that the master does not fail during the predefined period of time (Ts), after this period of time (Ts) the reserve initiates troubleshooting to determine the cause of the loss of synchronisation, wherein if the reserve is not faulty, after troubleshooting the master provides the reserve with relevant process control data in the context of an update, wherein after updating the reserve assumes process control as the new master and the master initiates further troubleshooting as the new reserve. a. Process inputs of a process image of the master are compared with process inputs of a process image of the reserve , b. The communication of the reserve with additional components of the automation system (AS) is adjusted, c. If the master fails during a predefined period of time (Ts), the reserve assumes process control as the new master, characterised in that d. In the event that the master does not fail during the predefined period of time (Ts), after this period of time (Ts) the reserve initiates troubleshooting to determine the cause of the loss of synchronisation, wherein if the reserve is not faulty, after troubleshooting the master provides the reserve with relevant process control data in the context of an update, wherein after updating the reserve assumes process control as the new master and the master initiates further troubleshooting as the new reserve.
A filter, comprising a substrate and a filtering film plated on the substrate, the filtering film comprises a uniform region and a color mixing region, the thickness of the filtering film in the uniform region is uniform, wherein the thickness of the filtering film in the color mixing region is not uniform, the thickness of the filtering film in the uniform region is greater than or equal to the thickness of the filtering film in the color mixing region, characterized in that the color mixing region of the filtering film comprises a central region (A) and side regions (B), the thickness of the central region (A) of the color mixing region is greater than the thickness of the side regions (B) of the color mixing region.
An audio signal decoding method, wherein the method comprises: obtaining, from a received bit stream, a decoded frequency domain signal; when the decoded frequency domain signal meets a predetermined condition, predicting, according to the decoded frequency domain signal, a frequency domain signal that is not obtained by decoding; wherein the predetermined condition comprises the following condition: a highest frequency of the decoded frequency domain signal is greater than a predetermined value, wherein the predetermined value is an index number of a sub-band, and the highest frequency of the decoded frequency domain signal is represented by using an index number of a sub-band in which the highest frequency domain signal is located; and obtaining, according to the decoded frequency domain signal and the predicted frequency domain signal, a finally outputted time domain signal. obtaining, from a received bit stream, a decoded frequency domain signal; when the decoded frequency domain signal meets a predetermined condition, predicting, according to the decoded frequency domain signal, a frequency domain signal that is not obtained by decoding; wherein the predetermined condition comprises the following condition: a highest frequency of the decoded frequency domain signal is greater than a predetermined value, wherein the predetermined value is an index number of a sub-band, and the highest frequency of the decoded frequency domain signal is represented by using an index number of a sub-band in which the highest frequency domain signal is located; and obtaining, according to the decoded frequency domain signal and the predicted frequency domain signal, a finally outputted time domain signal.
A solid-state lighting lamp , comprising: a glass tube , a glass bulb , the glass tube being arranged inside the glass bulb , an internal member at least partly arranged inside the glass tube , and optical means arranged on the glass tube , completely covering an inner surface of the glass tube and adapted to at least partly cloak the internal member, characterized in that the glass tube is joined with the glass bulb . a glass tube , a glass bulb , the glass tube being arranged inside the glass bulb , an internal member at least partly arranged inside the glass tube , and optical means arranged on the glass tube , completely covering an inner surface of the glass tube and adapted to at least partly cloak the internal member, characterized in that the glass tube is joined with the glass bulb .
An apparatus for producing a hook-and-loop fastener connector via an injection molding method, which comprises: an injection mold having a plurality of first and second mold halves (1;2), wherein each first mold half exhibits a plurality of first cavities in a first surface and each second mold half exhibits a plurality of second cavities in a second surface , and the first and second surfaces (4;6) face each other and contact such that the first and second cavity (3; 5) together form an entire cavity in hook form, wherein the hook form exhibits a hook foot and a hook head , and the hook foot and hook head are arranged within one plane, wherein the hook foot is formed at least by the first cavity and the hook head is formed at least by the second cavity , wherein the injection mold has a longitudinal axis along which the second mold halves are displaceable in relation to the first mold halves , characterized in that the plane and the longitudinal axis are angled to one another. an injection mold having a plurality of first and second mold halves (1;2), wherein each first mold half exhibits a plurality of first cavities in a first surface and each second mold half exhibits a plurality of second cavities in a second surface , and the first and second surfaces (4;6) face each other and contact such that the first and second cavity (3; 5) together form an entire cavity in hook form, wherein the hook form exhibits a hook foot and a hook head , and the hook foot and hook head are arranged within one plane, wherein the hook foot is formed at least by the first cavity and the hook head is formed at least by the second cavity , wherein the injection mold has a longitudinal axis along which the second mold halves are displaceable in relation to the first mold halves , characterized in that the plane and the longitudinal axis are angled to one another.
A method , in a network node , for arranging a synchronization service for a target network access node , comprising: receiving a service request from the target network access node for a synchronization service to be provided to the target network access node , wherein the service request comprises service information related to the synchronization needs of the target network access node; selecting a synchronization source node from among a plurality of candidate synchronization source nodes, responsive to the service request, wherein the selecting of the synchronization source node is based on the service information; negotiating with the synchronization source node to establish the synchronization service to be used for the target network access node; and sending a response towards the target network access node regarding the synchronization service to be provided by the synchronization source node. receiving a service request from the target network access node for a synchronization service to be provided to the target network access node , wherein the service request comprises service information related to the synchronization needs of the target network access node; selecting a synchronization source node from among a plurality of candidate synchronization source nodes, responsive to the service request, wherein the selecting of the synchronization source node is based on the service information; negotiating with the synchronization source node to establish the synchronization service to be used for the target network access node; and sending a response towards the target network access node regarding the synchronization service to be provided by the synchronization source node.
A bead expanded article comprising a plurality of expanded particles, wherein said bead expanded article contains a thermoplastic resin composition containing a polycarbonate-based resin having an aromatic skeleton as a main component, and said bead expanded article has properties that a value obtained by dividing a 10% compression stress (MPa) of said bead expanded article by a density (g/cm 3 ) is 9.0 (MPa·cm 3 /g) or more, an open cell rate of said bead expanded article is 10% or less and a density of said bead expanded article is 0.2 g/cm 3 or less, the 10% compression stress, the density, and the open cell rate of said bead expanded article being determined as described in the sections (10% Compression Stress of Bead Expanded Article), (Density of Bead Expanded Article), and (Open Cell Rate of Bead Expanded Article) of the description, respectively. said bead expanded article contains a thermoplastic resin composition containing a polycarbonate-based resin having an aromatic skeleton as a main component, and said bead expanded article has properties that a value obtained by dividing a 10% compression stress (MPa) of said bead expanded article by a density (g/cm 3 ) is 9.0 (MPa·cm 3 /g) or more, an open cell rate of said bead expanded article is 10% or less and a density of said bead expanded article is 0.2 g/cm 3 or less, the 10% compression stress, the density, and the open cell rate of said bead expanded article being determined as described in the sections (10% Compression Stress of Bead Expanded Article), (Density of Bead Expanded Article), and (Open Cell Rate of Bead Expanded Article) of the description, respectively.
Use of a cleaning solution for removing a dry etching residue and a photoresist on a surface of a semiconductor element having a low dielectric constant film (a low-k film) and at least one material selected from a material that contains 10 atomic % or more of titanium and a material that contains 10 atomic % or more of tungsten, wherein the cleaning solution contains: 0.002 to 50% by mass of at least one type of oxidant selected from the group consisting of a peroxide, perchloric acid and a perchlorate salt; 0.000001 to 5% by mass of an alkaline earth metal compound; and water, wherein the low-k film and the material that contains 10 atomic % or more of titanium and/or tungsten are not damaged.
A powder, as propulsion powder or ignition powder for accelerating projectiles for mortar systems, which is based on nitrocellulose and comprises a crystalline, nitramine-based energetic material at 1-30 wt% and an inorganic muzzle flash suppressor, the powder being present in the form of grains, and the grains having on their surface an inert plasticizing additive, wherein the inorganic muzzle flash suppressor is present at 0.1-10 wt% and, characterized in that the inert plasticizing additive is camphor and is present at 0.01-1 wt%.
A portable container, of the type of a suitcase, a trunk, a crate, a trolley, and the like, comprising a first shell portion and a second shell portion which are mutually articulated and can move between a configuration for closing an internal compartment and at least one open configuration for free access to the compartment , a safety device being coupled to said shell portions and contrasting accidental movement toward said closed configuration in order to maintain said open configuration, characterized in that it comprises an assembly for coupling said device to at least said first shell portion , said assembly being provided with: - at least two inserts which are stably inserted in respective seats having a corresponding shape which are provided along a wall of said first shell portion , - a slider coupled to said device , - a profiled element which is rigidly supported by said inserts and forms a guiding track for said slider , which is normally movable along said track , - means for the rigid anchoring of said slider to said profiled element , which can be activated at any position of said slider along said track . - at least two inserts which are stably inserted in respective seats having a corresponding shape which are provided along a wall of said first shell portion , - a slider coupled to said device , - a profiled element which is rigidly supported by said inserts and forms a guiding track for said slider , which is normally movable along said track , - means for the rigid anchoring of said slider to said profiled element , which can be activated at any position of said slider along said track .
An accompanying mobile body that includes a propelling unit and accompanies a user, comprising: a movement state recognition section that recognizes a moving direction and a moving speed of the user (U), based on an image of the user (U) shot by an omnidirectional camera disposed on the accompanying mobile body and a location of the user (U) detected by a LiDAR disposed on the accompanying mobile body ; a predicted location calculation section that calculates a predicted location of the user after a first predetermined time period based on the moving direction and the moving speed of the user recognized by the movement state recognition section ; and an accompanying control section that performs accompanying control to cause the accompanying mobile body to move by the propelling unit toward a target location of accompanying that is a location apart from the predicted location by a specified distance in a specified direction, characterized by comprising a motion recognition section that recognizes, based on an image of the user shot by the omnidirectional camera , a motion of the user including a gesture of the user that is the gesture by the user instructing a change in the accompanying conditions, and a change in a line of sight of the user, wherein the accompanying control section changes a sampling cycle (Ts) at which the predicted location is calculated in response to the motion of the user recognized by the motion recognition section. a movement state recognition section that recognizes a moving direction and a moving speed of the user (U), based on an image of the user (U) shot by an omnidirectional camera disposed on the accompanying mobile body and a location of the user (U) detected by a LiDAR disposed on the accompanying mobile body ; a predicted location calculation section that calculates a predicted location of the user after a first predetermined time period based on the moving direction and the moving speed of the user recognized by the movement state recognition section ; and an accompanying control section that performs accompanying control to cause the accompanying mobile body to move by the propelling unit toward a target location of accompanying that is a location apart from the predicted location by a specified distance in a specified direction, characterized by comprising a motion recognition section that recognizes, based on an image of the user shot by the omnidirectional camera , a motion of the user including a gesture of the user that is the gesture by the user instructing a change in the accompanying conditions, and a change in a line of sight of the user, wherein the accompanying control section changes a sampling cycle (Ts) at which the predicted location is calculated in response to the motion of the user recognized by the motion recognition section.
A blast damper comprising a frame defining a flow channel for air flow through the blast damper , closing blades pivotally arranged in the flow channel , wherein each closing blade can be pivoted about a pivot axis between a closed position and an open position and wherein each closing blade is pivotally supported at the frame by means of shaft means , an actuating mechanism comprising turning levers so that one turning lever is fixed to shaft means of each closing blade and a common operating lever is turnably fixed to each turning lever such that the closing blades are configured to simultaneously pivot between the closed position so as to prevent air flow through the blast damper and so that the actuating mechanism takes a closing position, and the open position so as to allow air flow through the blast damper and so that the actuating mechanism takes an opening position, and an energy storing device functionally connected to the actuating mechanism , wherein the closing blades are configured to move into the closed position in response to a pressure increase in the flow channel sensed by at least one of the closing blades , whereby the energy storing device is configured to be loaded with energy when the closing blades pivots into the closed position, wherein said energy loaded to the energy storing device is configured to urge the closing blades into the open position, characterized by an adjustable stopper mechanism functionally connected to the actuating mechanism for setting the opening position of the actuating mechanism . a frame defining a flow channel for air flow through the blast damper , closing blades pivotally arranged in the flow channel , wherein each closing blade can be pivoted about a pivot axis between a closed position and an open position and wherein each closing blade is pivotally supported at the frame by means of shaft means , an actuating mechanism comprising turning levers so that one turning lever is fixed to shaft means of each closing blade and a common operating lever is turnably fixed to each turning lever such that the closing blades are configured to simultaneously pivot between the closed position so as to prevent air flow through the blast damper and so that the actuating mechanism takes a closing position, and the open position so as to allow air flow through the blast damper and so that the actuating mechanism takes an opening position, and an energy storing device functionally connected to the actuating mechanism , wherein the closing blades are configured to move into the closed position in response to a pressure increase in the flow channel sensed by at least one of the closing blades , whereby the energy storing device is configured to be loaded with energy when the closing blades pivots into the closed position, wherein said energy loaded to the energy storing device is configured to urge the closing blades into the open position, characterized by an adjustable stopper mechanism functionally connected to the actuating mechanism for setting the opening position of the actuating mechanism .
A two-component waterborne wood sealing primer, comprising: Component A: a film-forming resin composition comprising an aqueous epoxy resin emulsion; and Component B: an aqueous curing system comprising an epoxy reactive curing agent, a filling slurry, and an additional additive; and wherein no organic solvent is added during the preparation process of the two-component waterborne wood sealing primer, and the two-component waterborne wood sealing primer has a solid content during application in the range of 45-50wt% and a VOC content of 80 g/L or less. Component A: a film-forming resin composition comprising an aqueous epoxy resin emulsion; and Component B: an aqueous curing system comprising an epoxy reactive curing agent, a filling slurry, and an additional additive; and wherein no organic solvent is added during the preparation process of the two-component waterborne wood sealing primer, and the two-component waterborne wood sealing primer has a solid content during application in the range of 45-50wt% and a VOC content of 80 g/L or less.