mhurhangee/ep-ind-claims huggingface dataset:
An acceleration sensor, comprising: a sensor unit including a weight portion (4, 5), a pair of beam portions (6a, 6b, 7a, 7b) configured to rotatably support the weight portion (4, 5), a movable electrode (4a, 5a) provided on a surface of the weight portion (4, 5), and a fixed electrode (20a, 20b, 21 a, 21 b); a fixed plate arranged in a spaced-apart relationship with the surface of the weight portion (4, 5) on which the movable electrode (4a, 5a) is provided, the fixed electrode (20a, 20b, 21 a, 21 b) being arranged on a surface of the fixed plate facing the movable electrode (4a, 5a); and an embedment electrode (A1, A2, A3, A4) embedded in the fixed plate to extend along a thickness direction of the fixed plate, the embedment electrode (A1, A2, A3, A4) having end portions, one of which faces the movable electrode (4a, or 5a) and the other of which is configured to serve as a detection electrode, wherein the fixed electrode (20a, 20b, 21 a, 21 b) is connected to said one end portion of the embedment electrode (A1, A2, A3, A4) by an extension portion (24a, 24b, 25a, 25b) provided therebetween such that the embedment electrode (A1, A2, A3, A4) is arranged out of alignment with the weight portion (4, 5), characterized in that: the fixed plate has a through-hole and the sensor unit has an additional electrode and the additional electrode is exposed to an outside through the through-hole. a sensor unit including a weight portion (4, 5), a pair of beam portions (6a, 6b, 7a, 7b) configured to rotatably support the weight portion (4, 5), a movable electrode (4a, 5a) provided on a surface of the weight portion (4, 5), and a fixed electrode (20a, 20b, 21 a, 21 b); a fixed plate arranged in a spaced-apart relationship with the surface of the weight portion (4, 5) on which the movable electrode (4a, 5a) is provided, the fixed electrode (20a, 20b, 21 a, 21 b) being arranged on a surface of the fixed plate facing the movable electrode (4a, 5a); and an embedment electrode (A1, A2, A3, A4) embedded in the fixed plate to extend along a thickness direction of the fixed plate, the embedment electrode (A1, A2, A3, A4) having end portions, one of which faces the movable electrode (4a, or 5a) and the other of which is configured to serve as a detection electrode, wherein the fixed electrode (20a, 20b, 21 a, 21 b) is connected to said one end portion of the embedment electrode (A1, A2, A3, A4) by an extension portion (24a, 24b, 25a, 25b) provided therebetween such that the embedment electrode (A1, A2, A3, A4) is arranged out of alignment with the weight portion (4, 5), characterized in that: the fixed plate has a through-hole and the sensor unit has an additional electrode and the additional electrode is exposed to an outside through the through-hole. the fixed plate has a through-hole and the sensor unit has an additional electrode and the additional electrode is exposed to an outside through the through-hole.
Method for producing a composite glass pane, at least comprising: - placing a first glass pane having a thickness less than or equal to 1 mm on a support mould, wherein the first glass pane is curved into a shape determined by the support mould; - placing at least one thermoplastic film on the first glass pane; - placing a curved second glass pane having a thickness greater than or equal to 1.5 mm on the thermoplastic film; and - joining the first glass pane to the second glass pane via the thermoplastic film to form a composite glass pane by lamination. - placing a first glass pane having a thickness less than or equal to 1 mm on a support mould, wherein the first glass pane is curved into a shape determined by the support mould; - placing at least one thermoplastic film on the first glass pane; - placing a curved second glass pane having a thickness greater than or equal to 1.5 mm on the thermoplastic film; and - joining the first glass pane to the second glass pane via the thermoplastic film to form a composite glass pane by lamination.
A method of wireless communication performed by a base station, comprising: transmitting (910, 1110), to a user equipment, UE, a bandwidth part configuration for a plurality of bandwidth parts, wherein a first bandwidth part of the plurality of bandwidth parts is identified as being activated and is associated with first resources allocated for uplink grant-free transmissions by the UE on the first bandwidth part; transmitting (930, 1120) a first message to deactivate the first bandwidth part; and managing (940, 1130) the first resources of the deactivated first bandwidth part based at least in part on the bandwidth part configuration wherein managing the first resources comprises maintaining the first resources for use with the UE and further comprising transmitting a second message to reactivate the first bandwidth part, wherein the second message excludes an indication to the UE of second resources allocated for uplink grant-free transmissions on the reactivated first bandwidth part. transmitting (910, 1110), to a user equipment, UE, a bandwidth part configuration for a plurality of bandwidth parts, wherein a first bandwidth part of the plurality of bandwidth parts is identified as being activated and is associated with first resources allocated for uplink grant-free transmissions by the UE on the first bandwidth part; transmitting (930, 1120) a first message to deactivate the first bandwidth part; and managing (940, 1130) the first resources of the deactivated first bandwidth part based at least in part on the bandwidth part configuration wherein managing the first resources comprises maintaining the first resources for use with the UE and further comprising transmitting a second message to reactivate the first bandwidth part, wherein the second message excludes an indication to the UE of second resources allocated for uplink grant-free transmissions on the reactivated first bandwidth part.
A process of making a granulate comprising vildagliptin or an acid addition salt thereof, which process comprises: a) providing a material comprising or consisting of vildagliptin or an acid addition salt thereof, b) mixing the material comprising or consisting of vildagliptin or an acid addition salt thereof with one or more additional ingredients to produce a mixture comprising vildagliptin or an acid addition salt thereof, c) subjecting the mixture comprising vildagliptin or an acid addition salt thereof to granulation, which granulation is wet granulation with liquid(s) free of gelatine, said wet granulation using solvent selected from alcohols with 1 to 4 carbon atoms, and mixtures thereof, the binder for use in wet granulation being selected from hydroxymethylcellulose, hydroxyethylcellulose, hydroxypropylcellulose, and mixtures thereof. a) providing a material comprising or consisting of vildagliptin or an acid addition salt thereof, b) mixing the material comprising or consisting of vildagliptin or an acid addition salt thereof with one or more additional ingredients to produce a mixture comprising vildagliptin or an acid addition salt thereof, c) subjecting the mixture comprising vildagliptin or an acid addition salt thereof to granulation,
A control device of a fuel injection valve that controls the fuel injection valve for injecting fuel to an internal combustion engine according to a control command, wherein it is determined whether the fuel injection valve operates as many as the number of times of injection or by a lift amount corresponding to the control command on the basis of a parameter that is changed according to an operation state of the fuel injection valve, wherein the control device further comprises: a calculation processing device that executes a program related to the control of the fuel injection valve, and a drive circuit that includes a switching element for outputting a drive voltage to the fuel injection valve, wherein the parameter is information that is overlapped in an output from the drive circuit to the fuel injection valve, wherein the calculation processing device performs the determination on whether the fuel injection valve performs an operation corresponding to the control command on the basis of the parameter that is changed according to the operation state of the fuel injection valve, characterized in that: the calculation processing device diagnoses the drive circuit that includes a switching element for outputting a drive voltage to the fuel injection valve, distinctively determines an abnormal state of the drive circuit and an abnormal state in which the fuel injection valve does not perform an operation corresponding to the control command, and switches a process including at least one of a fail-safe process according to a determination result, a process of correcting the control command, a process of notifying an operator of a vehicle, and a process of storing a log. a calculation processing device that executes a program related to the control of the fuel injection valve, and a drive circuit that includes a switching element for outputting a drive voltage to the fuel injection valve, wherein the parameter is information that is overlapped in an output from the drive circuit to the fuel injection valve, wherein the calculation processing device performs the determination on whether the fuel injection valve performs an operation corresponding to the control command on the basis of the parameter that is changed according to the operation state of the fuel injection valve, characterized in that: the calculation processing device diagnoses the drive circuit that includes a switching element for outputting a drive voltage to the fuel injection valve, distinctively determines an abnormal state of the drive circuit and an abnormal state in which the fuel injection valve does not perform an operation corresponding to the control command, and switches a process including at least one of a fail-safe process according to a determination result, a process of correcting the control command, a process of notifying an operator of a vehicle, and a process of storing a log.
An apparatus comprising: a memory controller comprising a plurality of ports (32, 34, 36); a processor complex coupled to a first port of the plurality of ports (32, 34, 36); one or more input/output, I/O, devices (16, 18, 20); and a coherence switch coupled to receive transactions from the one or more I/O devices (16, 18, 20); wherein the coherence switch is configured to: route a received transaction to the processor complex responsive to determining the transaction is a coherent transaction; characterized in that: route the received transaction to a second port of the plurality of ports (32, 34, 36) of the memory controller responsive to determining the received transaction is a non-coherent transaction. a memory controller comprising a plurality of ports (32, 34, 36); a processor complex coupled to a first port of the plurality of ports (32, 34, 36); one or more input/output, I/O, devices (16, 18, 20); and a coherence switch coupled to receive transactions from the one or more I/O devices (16, 18, 20); wherein the coherence switch is configured to: route a received transaction to the processor complex responsive to determining the transaction is a coherent transaction; characterized in that: route the received transaction to a second port of the plurality of ports (32, 34, 36) of the memory controller responsive to determining the received transaction is a non-coherent transaction. route a received transaction to the processor complex responsive to determining the transaction is a coherent transaction; characterized in that: route the received transaction to a second port of the plurality of ports (32, 34, 36) of the memory controller responsive to determining the received transaction is a non-coherent transaction. route the received transaction to a second port of the plurality of ports (32, 34, 36) of the memory controller responsive to determining the received transaction is a non-coherent transaction.
A mobile computing device comprising: a housing configured to be carried by a user while in use; a camera configured to output image data; a display; a position determination circuit; an input device, configured to receive instructions from a user; and a processing circuit; wherein the processing circuit is configured to receive geographic element data for one or more geographic elements from a computer, to determine orientation of the camera using position data provided by the position determination circuit and user input indicating aligned superposition of the geographic element data with a corresponding geographic element displayed in an instantaneous video frame captured by the camera and rendered on the display, wherein the processing circuit is configured to detect a boundary and/or an edge of the displayed geographic element and align corresponding geographic element data received from the computer to the displayed geographic element based at least in part on a detected boundary and/or edge for the concurrent display of the image data and geographic element data for the one or more geographic elements on the display, and to concurrently display on the display the image data and geographic element data for geographic elements of the one or more geographic elements selected based at least in part on the position data. a housing configured to be carried by a user while in use; a camera configured to output image data; a display; a position determination circuit; an input device, configured to receive instructions from a user; and a processing circuit; wherein the processing circuit is configured to receive geographic element data for one or more geographic elements from a computer, to determine orientation of the camera using position data provided by the position determination circuit and user input indicating aligned superposition of the geographic element data with a corresponding geographic element displayed in an instantaneous video frame captured by the camera and rendered on the display, wherein the processing circuit is configured to detect a boundary and/or an edge of the displayed geographic element and align corresponding geographic element data received from the computer to the displayed geographic element based at least in part on a detected boundary and/or edge for the concurrent display of the image data and geographic element data for the one or more geographic elements on the display, and to concurrently display on the display the image data and geographic element data for geographic elements of the one or more geographic elements selected based at least in part on the position data.
A quick-assembly cardboard box designed to contain bottles horizontally on their sides and provided of dividing means (35, 36) for keeping said bottles separated from each other during transport in order to prevent damages to said bottles, said box being assembled starting from a die-cut cardboard sheet having four rectangular areas provided with respective folding lines forming the side walls (33, 33') of said box, each of said rectangular areas having a respective upper and lower flap defined by respective folding lines forming the respective cover and bottom surfaces of said box, whereby said dividing means (35, 36) comprise at least one die-cut single-piece cardboard sheet having folding creases and precuts enabling said cardboard sheet to be crossways opened, a flap of the dividing means (35, 36) forming a horizontal divider between a pair of bottles one on the top of the other and where another flap of the dividing means (35, 36) forms a vertical divider between a pair of bottles lying side by side inside the box, said dividing means (35, 36) forming, when the bottles are positioned inside the box, a horizontal dividing surface separating a lower layer of bottles laying on their sides inside the box from an upper layer of bottles laying on their sides inside the box, as well as a vertical dividing surface separating from each other two adjacent bottles of each layer, characterised in that said at least one cardboard sheet forming said dividing means (35, 36) is glued along a bottom gluing strip to the inner, middle section of a wall (33, 33') of said box, and is rotatable so that before inserting the bottles in the box each dividing means (35, 36) is parallel to the side wall (33, 33') which it is glued to and it leans against said side wall (33, 33'), thereby allowing the bottles of said lower layer to be freely inserted on their sides within the box.
A molding device (1, 12, 16, 17, 20) for curing of at least one composite component, the molding device (1, 12, 16, 17, 20) comprising: - a molding die having an upper surface, a base plate and a vacuum chamber within the molding die and the base plate, - heat application means (6, 7, 8, 9, 10, 11), - sheathing means for sealing off the at least one composite component on the upper surface of the molding die and the molding die about the at least one vacuum chamber; the sheathing means being a vacuum foil that encloses as well a lateral part of the molding die and the base plate, and - vacuum means for the application of vacuum to the at least one composite component on the upper surface of the molding die via the vacuum chamber; the heat application means (6, 7, 8, 9, 10, 11) comprises inner heat pipes within the vacuum chamber and outer heat pipes out of the vacuum chamber for heat exchange to the molding die for thermal conduction to the at least one composite component; an outer heat pipe being provided with fins to form a multi-layered heat exchanger at a free end of the outer heat pipe and with a two-dimensional heat exchanger; the two-dimensional heat exchanger being in planar contact with the base plate for heat transfer applied through the fins via heated air into the outer heat pipe to transfer heat via the two-dimensional heat exchanger to the base plate; an inner heat pipe being provided with a two-dimensional base heat exchanger and a two-dimensional die heat exchanger inside the vacuum chamber; the two-dimensional base heat exchanger being in planar contact with the base plate for being heated up with the heat from the outer heat pipe and heat of the two-dimensional base heat exchanger being transferred via the inner heat pipe to the two-dimensional die heat exchanger that is in planar contact for heat exchange with the molding die, for heat exchange with the molding die and for heat transfer into the at least one composite material 5. - a molding die having an upper surface, a base plate and a vacuum chamber within the molding die and the base plate, - heat application means (6, 7, 8, 9, 10, 11), - sheathing means for sealing off the at least one composite component on the upper surface of the molding die and the molding die about the at least one vacuum chamber; the sheathing means being a vacuum foil that encloses as well a lateral part of the molding die and the base plate, and - vacuum means for the application of vacuum to the at least one composite component on the upper surface of the molding die via the vacuum chamber;
A sleeve device for a mobile device, in particular a smartphone or tablet or other types of handhelds respectively mobile smart devices, comprising at least one sleeve part for at least partially surrounding the mobile device and at least one input device at least partially disposed in the sleeve part for actuating the mobile device which can be accommodated in the sleeve part, wherein the input device comprises at least one movable operating member and at least one braking device, and wherein movement of the operating member can in particular be damped controlled by means of the braking device, characterized in that the operating member comprises at least two actuating zones, and wherein the movement of the operating member can be damped controlled in dependence on the actuating zone in which the operating member is actuated and in particular touched, and that the sleeve device comprises at least one monitoring device, wherein the monitoring device is suitable and configured for capturing by sensor the actuating zone in which actuating takes place.
A self-powered electrochemical cell for use with an electrochemical analyte sensor, comprising: a working electrode comprising an enzyme disposed on the working electrode, wherein the working electrode is configured and arranged for electrooxidizing or electroreducing a primary reactant in the presence of the enzyme; a counter electrode capable of electroreducing or electrooxidizing a secondary reactant, wherein the self-powered electrochemical cell spontaneously passes a current that is linearly proportional to analyte concentration in the absence of an external power source. a working electrode comprising an enzyme disposed on the working electrode, wherein the working electrode is configured and arranged for electrooxidizing or electroreducing a primary reactant in the presence of the enzyme; a counter electrode capable of electroreducing or electrooxidizing a secondary reactant, wherein the self-powered electrochemical cell spontaneously passes a current that is linearly proportional to analyte concentration in the absence of an external power source.
An implantable device comprising: - a body; - a first wing coupled to the body, wherein the first wing comprises an upper portion having teeth, a central portion, and a lower portion having teeth; - a second wing, wherein the second wing comprises an upper portion having teeth, a central portion and a lower portion having teeth; - wherein the second wing comprises an opening; - the body comprises a rod disposed through the opening in the second wing, wherein the rod is received within the central portion of the first wing and the central portion of the second wing; and wherein the rod comprises an opening extending there through - a ratcheting lock (120, 125, 130, 60) secures the second wing on the body; - wherein the rod is configured to spread to increase a diameter of the rod by sliding a pin into the opening of the rod. - a body; - a first wing coupled to the body, wherein the first wing comprises an upper portion having teeth, a central portion, and a lower portion having teeth; - a second wing, wherein the second wing comprises an upper portion having teeth, a central portion and a lower portion having teeth; - wherein the second wing comprises an opening; - the body comprises a rod disposed through the opening in the second wing, wherein the rod is received within the central portion of the first wing and the central portion of the second wing; and wherein the rod comprises an opening extending there through - a ratcheting lock (120, 125, 130, 60) secures the second wing on the body; - wherein the rod is configured to spread to increase a diameter of the rod by sliding a pin into the opening of the rod.