mhurhangee/patent-ind-claim-en huggingface dataset:
A cordless handheld ultrasonic device, comprising: a drive circuit , comprising: a direct current power source ; at least one boost converter in series with the power source; a square wave driver in series with the boost converter ; a capacitor and an inductor connected in series with the square wave driver for converting a square wave to a sinusoidal wave; and a piezoelectric transducer in series with the capacitor and the inductor , the piezoelectric transducer connectable to a load and having a capacitance, a resonance frequency, and a 3rd harmonic mode of vibration; a phase-locked loop coupled to the drive circuit and configured to synchronize drive voltage to the resonance frequency of the piezoelectric transducer when the piezoelectric transducer is connected to the load; and a frequency limiting circuit coupled to the phase-locked loop and configured to prevent the phase-locked loop from exceeding the resonant frequency of the piezoelectric transducer ; wherein the capacitor and the inductor are selected to have a resonance frequency higher than the resonance frequency of the piezoelectric transducer and less than the 3 rd harmonic mode of vibration of the piezoelectric transducer. a drive circuit , comprising: a direct current power source ; at least one boost converter in series with the power source; a square wave driver in series with the boost converter ; a capacitor and an inductor connected in series with the square wave driver for converting a square wave to a sinusoidal wave; and a piezoelectric transducer in series with the capacitor and the inductor , the piezoelectric transducer connectable to a load and having a capacitance, a resonance frequency, and a 3rd harmonic mode of vibration; a direct current power source ; at least one boost converter in series with the power source; a square wave driver in series with the boost converter ; a capacitor and an inductor connected in series with the square wave driver for converting a square wave to a sinusoidal wave; and a piezoelectric transducer in series with the capacitor and the inductor , the piezoelectric transducer connectable to a load and having a capacitance, a resonance frequency, and a 3rd harmonic mode of vibration; a phase-locked loop coupled to the drive circuit and configured to synchronize drive voltage to the resonance frequency of the piezoelectric transducer when the piezoelectric transducer is connected to the load; and a frequency limiting circuit coupled to the phase-locked loop and configured to prevent the phase-locked loop from exceeding the resonant frequency of the piezoelectric transducer ; wherein the capacitor and the inductor are selected to have a resonance frequency higher than the resonance frequency of the piezoelectric transducer and less than the 3 rd harmonic mode of vibration of the piezoelectric transducer.
A trocar assembly , comprising: a trocar housing that defines a working chamber ; a cannula coupled to the trocar housing at a proximal end to facilitate communication between the cannula and the working chamber; and a tool stabilizing device coupled to at least one of the trocar housing and the cannula and actuatable by rotation to stabilize and center a surgical tool within the cannula; wherein the cannula defines a plurality of fingers and each finger provides a tapered outer portion , and wherein the tool stabilizing device comprises: a body arranged about an exterior of one or both of the trocar housing and the cannula; and characterized in that a ring is arranged at a distal end of the body and having an annular shoulder engageable with the tapered outer portion of each finger to adjust an inner diameter of the cannula when the tool stabilizing device is actuated. a trocar housing that defines a working chamber ; a cannula coupled to the trocar housing at a proximal end to facilitate communication between the cannula and the working chamber; and a tool stabilizing device coupled to at least one of the trocar housing and the cannula and actuatable by rotation to stabilize and center a surgical tool within the cannula; wherein the cannula defines a plurality of fingers and each finger provides a tapered outer portion , and wherein the tool stabilizing device comprises: a body arranged about an exterior of one or both of the trocar housing and the cannula; and characterized in that a ring is arranged at a distal end of the body and having an annular shoulder engageable with the tapered outer portion of each finger to adjust an inner diameter of the cannula when the tool stabilizing device is actuated. a body arranged about an exterior of one or both of the trocar housing and the cannula; and characterized in that a ring is arranged at a distal end of the body and having an annular shoulder engageable with the tapered outer portion of each finger to adjust an inner diameter of the cannula when the tool stabilizing device is actuated.
A method of friction welding a first workpiece to a second workpiece, the method comprising the steps of: (a) providing the first workpiece with a first faying surface, and the second workpiece with a second faying surface, the first faying surface having a first faying length, and the second faying surface having a second faying length, the second faying length being greater than the first faying length in a welding direction; (b) positioning the first workpiece adjacent the second workpiece with the first faying surface being in engagement with the second faying surface; (c) reciprocating the first workpiece and the second workpiece against one another in the welding direction such that the first faying surface moves relative to the second faying surface by a sweep length, such that a temperature at the first and second faying surfaces increases to create a weld interface; (d) as the weld process progresses and each of the first workpiece and second workpiece are consumed into the weld interface, adjusting the sweep length such that the sweep length remains equal to a difference between the second faying length and the first faying length; and (e) stopping the reciprocating and allowing the first workpiece and the second workpiece to cool to weld the first workpiece and the second workpiece together. (a) providing the first workpiece with a first faying surface, and the second workpiece with a second faying surface, the first faying surface having a first faying length, and the second faying surface having a second faying length, the second faying length being greater than the first faying length in a welding direction; (b) positioning the first workpiece adjacent the second workpiece with the first faying surface being in engagement with the second faying surface; (c) reciprocating the first workpiece and the second workpiece against one another in the welding direction such that the first faying surface moves relative to the second faying surface by a sweep length, such that a temperature at the first and second faying surfaces increases to create a weld interface; (d) as the weld process progresses and each of the first workpiece and second workpiece are consumed into the weld interface, adjusting the sweep length such that the sweep length remains equal to a difference between the second faying length and the first faying length; and (e) stopping the reciprocating and allowing the first workpiece and the second workpiece to cool to weld the first workpiece and the second workpiece together.
A storage system comprising: a plurality of shelves , respectively provided with at least one nozzle configured to supply clean gas into containers ; a plurality of flow amount controlling devices , respectively configured to control supply amount of said clean gas to said at least one nozzle ; at least one transport apparatus configured to transfer said containers to and from said shelves ; and a controller configured to control said at least one transport apparatus and said flow amount controlling devices , wherein said controller is configured and programmed to unload an incoming container on a shelf of the plurality of shelves at an unloading position, to make an assignment of at least one shelf in preparation for storing a next incoming container immediately after the unloading of the incoming container is completed and before the occurrence of said next incoming container , and to control one of said flow amount controlling devices to supply said clean gas to said at least one nozzle in said at least one shelf , based upon said assignment, wherein supply of the clean gas is started when the assignment of the shelf for the next incoming container is made and before the occurrence of said next incoming container . a plurality of shelves , respectively provided with at least one nozzle configured to supply clean gas into containers ; a plurality of flow amount controlling devices , respectively configured to control supply amount of said clean gas to said at least one nozzle ; at least one transport apparatus configured to transfer said containers to and from said shelves ; and a controller configured to control said at least one transport apparatus and said flow amount controlling devices , wherein said controller is configured and programmed to unload an incoming container on a shelf of the plurality of shelves at an unloading position, to make an assignment of at least one shelf in preparation for storing a next incoming container immediately after the unloading of the incoming container is completed and before the occurrence of said next incoming container , and to control one of said flow amount controlling devices to supply said clean gas to said at least one nozzle in said at least one shelf , based upon said assignment, to unload an incoming container on a shelf of the plurality of shelves at an unloading position, to make an assignment of at least one shelf in preparation for storing a next incoming container immediately after the unloading of the incoming container is completed and before the occurrence of said next incoming container , and to control one of said flow amount controlling devices to supply said clean gas to said at least one nozzle in said at least one shelf , based upon said assignment, wherein supply of the clean gas is started when the assignment of the shelf for the next incoming container is made and before the occurrence of said next incoming container .
A method for forming a die-cut element, particularly for forming a wrap-around box of the tray plus lid type, comprising: - a step of providing a main die-cut element and a secondary die-cut element ; characterised in that the method comprises: - a division step of the main die-cut element along a predefined division line in such a way as to obtain a first die-cut element and second die-cut element that are mutually distinct, wherein grip and contrast means retain the main die-cut element during division thereof into the first die-cut element and into the second die-cut element , - a step of depositing glue on a first portion of one from between the first die-cut element and the secondary die-cut element and on a second portion of one from between the second die-cut element and the secondary die-cut element , - a step of forming an opened die-cut element of the tray plus lid type provided by the combination of said first die-cut element and of said second die-cut element , wherein: the first die-cut element and the second die-cut element are coupled to the secondary die-cut element with the first die-cut element and the secondary die-cut element partly superposed and pressed to one another at the first portion and the second die-cut element and the secondary die-cut element partially superposed and pressed to one another at the second portion ; - wherein the step of depositing the glue is carried out prior to the step of forming. - a step of providing a main die-cut element and a secondary die-cut element ; - a division step of the main die-cut element along a predefined division line in such a way as to obtain a first die-cut element and second die-cut element that are mutually distinct, wherein grip and contrast means retain the main die-cut element during division thereof into the first die-cut element and into the second die-cut element , - a step of depositing glue on a first portion of one from between the first die-cut element and the secondary die-cut element and on a second portion of one from between the second die-cut element and the secondary die-cut element , - a step of forming an opened die-cut element of the tray plus lid type provided by the combination of said first die-cut element and of said second die-cut element , wherein: the first die-cut element and the second die-cut element are coupled to the secondary die-cut element with the first die-cut element and the secondary die-cut element partly superposed and pressed to one another at the first portion and the second die-cut element and the secondary die-cut element partially superposed and pressed to one another at the second portion ; - wherein the step of depositing the glue is carried out prior to the step of forming.
A printing machine , comprising: a printing unit which is configured to perform printing while transferring a sheet (P) at a printing transfer speed (Vg), a circulation transfer unit which is configured to receive the sheet (P) after simplex printing and configured to transfer the sheet (P) by reversing the sheet upside down, during duplex printing, and a paper refeed unit which is configured to refeed, to the printing unit , the sheet (P) transferred by the circulation transfer unit after simplex printing, wherein the circulation transfer unit includes an intermediate transfer unit configured to transfer the sheet (P) at the printing transfer speed (Vg), and a reversing unit which is configured to receive the sheet (P) from the intermediate transfer unit at the printing transfer speed (Vg) and keep transferring the received sheet (P) at the printing transfer speed (Vg) until a trailing end of the sheet (P) has slipped out from the intermediate transfer unit before bringing the sheet to a temporal stop (STOP) for a predetermined time period (t1 to t2) during a switching back operation that is performed to invert the sheet (P) upside down, the reversing unit being further configured to accelerate the sheet (P) up to a circulation transfer speed (Vr) which is higher than the printing transfer speed (Vg) when sheet transfer is restarted after the temporal stop (STOP), and a high-speed transfer unit which is configured to transfer the sheet (P) switched back by the reversing unit , at the circulation transfer speed (Vr). a printing unit which is configured to perform printing while transferring a sheet (P) at a printing transfer speed (Vg), a circulation transfer unit which is configured to receive the sheet (P) after simplex printing and configured to transfer the sheet (P) by reversing the sheet upside down, during duplex printing, and a paper refeed unit which is configured to refeed, to the printing unit , the sheet (P) transferred by the circulation transfer unit after simplex printing, wherein the circulation transfer unit includes an intermediate transfer unit configured to transfer the sheet (P) at the printing transfer speed (Vg), and a reversing unit which is configured to receive the sheet (P) from the intermediate transfer unit at the printing transfer speed (Vg) and keep transferring the received sheet (P) at the printing transfer speed (Vg) until a trailing end of the sheet (P) has slipped out from the intermediate transfer unit before bringing the sheet to a temporal stop (STOP) for a predetermined time period (t1 to t2) during a switching back operation that is performed to invert the sheet (P) upside down, the reversing unit being further configured to accelerate the sheet (P) up to a circulation transfer speed (Vr) which is higher than the printing transfer speed (Vg) when sheet transfer is restarted after the temporal stop (STOP), and a high-speed transfer unit which is configured to transfer the sheet (P) switched back by the reversing unit , at the circulation transfer speed (Vr).
A method comprising, at a client device configured for communications in an information centric networking, ICN, system: transmitting , to a server, a first interest message, wherein the first interest message comprises a request for a representational state transfer, REST, operation and a first name of a first state for the REST operation; receiving , from the server, a second interest message, wherein the second interest message comprises the first name of the first state for the REST operation; transmitting , to the server, in response to receiving the second interest message, a first named data object indicated by the first name, the first named data object comprising the first state for the REST operation; and receiving , from the server, a response to the REST operation indicating whether the REST operation was completed successfully to update the first state. transmitting , to a server, a first interest message, wherein the first interest message comprises a request for a representational state transfer, REST, operation and a first name of a first state for the REST operation; receiving , from the server, a second interest message, wherein the second interest message comprises the first name of the first state for the REST operation; transmitting , to the server, in response to receiving the second interest message, a first named data object indicated by the first name, the first named data object comprising the first state for the REST operation; and receiving , from the server, a response to the REST operation indicating whether the REST operation was completed successfully to update the first state.
A method implemented by one or more processors, the method comprising: receiving a first command phrase provided by a user at an assistant interface, the assistant interface associated with an automated assistant application that is accessible to the one or more processors; determining that the first command phrase is unrecognized by the automated assistant application, at least based on an absence of correlation between the first command phrase and one or more command phrases available to the automated assistant application; causing a response phrase to be presented to the user via the assistant interface, the response phrase comprising a request for instructions to execute the first command phrase; receiving one or more second command phrases in response to providing of the response phrase, the one or more second command phrases identifying a plurality of actions to be performed by the automated assistant application responsive to the first command phrase; and causing the automated assistant application to store a command phrase, corresponding to the first command phrase, in association with the plurality of actions identified in the one or more second command phrases. receiving a first command phrase provided by a user at an assistant interface, the assistant interface associated with an automated assistant application that is accessible to the one or more processors; determining that the first command phrase is unrecognized by the automated assistant application, at least based on an absence of correlation between the first command phrase and one or more command phrases available to the automated assistant application; causing a response phrase to be presented to the user via the assistant interface, the response phrase comprising a request for instructions to execute the first command phrase; receiving one or more second command phrases in response to providing of the response phrase, the one or more second command phrases identifying a plurality of actions to be performed by the automated assistant application responsive to the first command phrase; and
A submarine having a battery compartment , the battery compartment comprising at least two batteries , the battery compartment comprising at least one bus bar , the bus bar comprising at least a first bar element for a first phase and a second bar element for a second phase, the batteries being connected to the bus bar via a respective electrically conductive connection , said connection comprising a first cable for a first phase and a second cable for a second phase, said first rail element and said first cable being connected to each other via a clamp connection, said second rail element and said second cable being connected to each other via a clamp connection, said busbar comprising a third rail element for a first phase and a fourth rail element for a second phase, wherein the rail elements of the conductor rail are arranged such that the first rail element and the second rail element are arranged parallel to each other, wherein the third rail element and the fourth rail element are arranged parallel to each other, characterized in that the rail elements are formed flat, wherein the first rail element and the second rail element are arranged with the broadside adjacent to each other, wherein the third rail element and the fourth rail element are arranged with the broadside adjacent to each other, wherein the first rail element and the fourth rail element are arranged in a plane, wherein the second rail element and the third rail element are arranged in a plane.
A three-dimensional flash memory device, comprising: a substrate having a planar surface; a plurality of active columns of semiconducting material disposed above said substrate , each of said plurality of active columns extending along a first direction orthogonal to said planar surface of said substrate , a stack of word lines wrapping around said plurality of active columns, wherein said plurality of active columns is arranged in a two-dimensional array, and wherein each of said plurality of active columns comprises multiple local bit lines (354a-354d) and multiple local source lines (355a-355d) at its periphery, the multiple local bit lines (354a - 354d) and the multiple local source lines (355a - 355d) extending in said first direction; wherein each of said plurality of active columns further comprises multiple channel regions (356-1~ 356-8) on each respective word line level, wherein a channel region (356-1 ∼ 356-8) : of the multiple channel regions on each respective word line level is disposed between every pair consisting of a local bit line (354a-354d) and an adjacent local source line (355a - 355d) and a charge storage element , disposed between said word line stack and each of said plurality of active columns. a substrate having a planar surface; a plurality of active columns of semiconducting material disposed above said substrate , wherein said plurality of active columns is arranged in a two-dimensional array, and wherein each of said plurality of active columns comprises multiple local bit lines (354a-354d) and multiple local source lines (355a-355d) at its periphery, the multiple local bit lines (354a - 354d) and the multiple local source lines (355a - 355d) extending in said first direction; wherein each of said plurality of active columns further comprises multiple channel regions (356-1~ 356-8) on each respective word line level, wherein a channel region (356-1 ∼ 356-8) : of the multiple channel regions on each respective word line level is disposed between every pair consisting of a local bit line (354a-354d) and an adjacent local source line (355a - 355d) and a charge storage element , disposed between said word line stack and each of said plurality of active columns.
Gas delivery device comprising a first chamber enclosed by gas-, liquid- and solid-tight first chamber walls, wherein at least a part of the first chamber walls has been replaced by a first gas permeable and liquid and solid impermeable membrane, wherein the first chamber comprises a gas releasing molecule, and wherein the first gas permeable membrane comprises silicone, wherein the gas releasing molecule is a carbon monoxide releasing molecule (CORM), a hydrogen sulfide (H 2 S) releasing molecule or a nitric oxide (NO) releasing molecule, and wherein the gas releasing molecule is a metal organic compound.