mhurhangee/patent-ind-claim-en huggingface dataset:
Digital pump axis control system with an at least partially open circuit comprising: an electric engine , powering a first and a second hydraulic machine , wherein the first and second hydraulic machines are connected in a rotationally locked manner to each other; at least one cylinder , having a first chamber and a second chamber , wherein the first chamber of the cylinder is connected through a first pipeline to the first hydraulic machine and the second chamber of the cylinder is connected through a second pipeline to the second hydraulic machine ; a first valve arranged in the first pipeline ; a second valve arranged in the second pipeline ; a third valve arranged in a third pipeline , wherein the third pipeline connects a portion of the first pipeline arranged between the first hydraulic machine and the first valve and a portion of the second pipeline arranged between the second hydraulic machine and the second valve ; and an open tank providing hydraulic fluid to inlets of the first and second hydraulic machines , characterized in that the first and second hydraulic machines are digital variable displacement pumps, each providing a positive and a negative displacement of hydraulic fluid, and wherein the third valve enables both hydraulic machines to work together on the same chamber of the cylinder . an electric engine , powering a first and a second hydraulic machine , wherein the first and second hydraulic machines are connected in a rotationally locked manner to each other; at least one cylinder , having a first chamber and a second chamber , wherein the first chamber of the cylinder is connected through a first pipeline to the first hydraulic machine and the second chamber of the cylinder is connected through a second pipeline to the second hydraulic machine ; a first valve arranged in the first pipeline ; a second valve arranged in the second pipeline ; a third valve arranged in a third pipeline , wherein the third pipeline connects a portion of the first pipeline arranged between the first hydraulic machine and the first valve and a portion of the second pipeline arranged between the second hydraulic machine and the second valve ; and an open tank providing hydraulic fluid to inlets of the first and second hydraulic machines , characterized in that the first and second hydraulic machines are digital variable displacement pumps, each providing a positive and a negative displacement of hydraulic fluid, and wherein the third valve enables both hydraulic machines to work together on the same chamber of the cylinder .
An electronic component comprising: - an organic plant part e.g. a petal, a petiole, a stem portion, a petal portion, a petiole portion or a leaf portion; - electronic conducting material provided within the organic plant part; and wherein the electronic conducting material forms a continuous electronic conductor and/or a circuitry; and wherein said electronic conducting material is an organic polymer semiconductor material. - an organic plant part e.g. a petal, a petiole, a stem portion, a petal portion, a petiole portion or a leaf portion; - electronic conducting material provided within the organic plant part; and wherein the electronic conducting material forms a continuous electronic conductor and/or a circuitry; and wherein said electronic conducting material is an organic polymer semiconductor material.
Tool for dismantling an annular part mounted around a shaft of a turbomachine of X axis, comprising: - a support intended to cooperate with a lifting system, - means for fastening and maintaining the annular part , said fastening and maintaining means being integral with the support , the fastening and maintaining means have an opening suited to receiving the shaft of the turbomachine during the dismantling of the annular part , characterised in that the fastening and maintaining means are rotationally moveable with respect to the support between a first position (P1) and a second position (P2) by the rotating means to ensure a switching of the X axis of the annular part with respect to the support when the fastening and maintaining means are fixed to the annular part . - a support intended to cooperate with a lifting system, - means for fastening and maintaining the annular part , said fastening and maintaining means being integral with the support , the fastening and maintaining means have an opening suited to receiving the shaft of the turbomachine during the dismantling of the annular part ,
An electronic device comprising: a housing ; a touchscreen display viewable through a portion of the housing; at least one processor disposed inside the housing and operatively connected with the touchscreen display; and a memory disposed within the housing and operatively connected with the at least one processor, wherein the memory stores instructions that, when executed, cause the at least one processor to perform a plurality of operations, the plurality of operations comprising: displaying a first augmented reality, AR, emoji on a window capable of receiving at least one first stroke input , through the touchscreen display; receiving the at least one first stroke input while displaying the first AR emoji on the window; characterized by retrieving from a database a second AR emoji based at least partially on a position and a shape of the at least one first stroke input; retrieving from a database at least one of a sticker image or a background image based on the shape of the received at least one first stroke input on the window; and displaying the at least one of the sticker image or the background image along with the second AR emoji . a housing ; a touchscreen display viewable through a portion of the housing; at least one processor disposed inside the housing and operatively connected with the touchscreen display; and a memory disposed within the housing and operatively connected with the at least one processor, wherein the memory stores instructions that, when executed, cause the at least one processor to perform a plurality of operations, the plurality of operations comprising: displaying a first augmented reality, AR, emoji on a window capable of receiving at least one first stroke input , through the touchscreen display; receiving the at least one first stroke input while displaying the first AR emoji on the window; characterized by retrieving from a database a second AR emoji based at least partially on a position and a shape of the at least one first stroke input; retrieving from a database at least one of a sticker image or a background image based on the shape of the received at least one first stroke input on the window; and displaying the at least one of the sticker image or the background image along with the second AR emoji . displaying a first augmented reality, AR, emoji on a window capable of receiving at least one first stroke input , through the touchscreen display; receiving the at least one first stroke input while displaying the first AR emoji on the window; characterized by retrieving from a database a second AR emoji based at least partially on a position and a shape of the at least one first stroke input; retrieving from a database at least one of a sticker image or a background image based on the shape of the received at least one first stroke input on the window; and displaying the at least one of the sticker image or the background image along with the second AR emoji .
A method of uploading a device description of a field device from the field device to a host device on an industrial process network, the method comprising: transmitting, by the host device to the field device, a device description upload request to request the field device to upload the device description from the field device to the host device, wherein the device description includes a plurality of parameters descriptive of functional attributes of the field device, and wherein the device description is stored in a non-volatile memory of the field device; receiving, by the host device, the device description via one or more communication messages from the field device; and storing, by the host device, the device description in a non-volatile memory of the host device; wherein receiving the device description via the one or more communication messages from the field device comprises receiving the device description via one or more broadcast communication messages according to a connectionless fast data transfer communication protocol; and wherein transmitting the device description upload request is performed via a connection-oriented communication session between the host device and the field device. transmitting, by the host device to the field device, a device description upload request to request the field device to upload the device description from the field device to the host device, wherein the device description includes a plurality of parameters descriptive of functional attributes of the field device, and wherein the device description is stored in a non-volatile memory of the field device; receiving, by the host device, the device description via one or more communication messages from the field device; and storing, by the host device, the device description in a non-volatile memory of the host device; wherein receiving the device description via the one or more communication messages from the field device comprises receiving the device description via one or more broadcast communication messages according to a connectionless fast data transfer communication protocol; and wherein transmitting the device description upload request is performed via a connection-oriented communication session between the host device and the field device.
Apparatus , including a pump, comprising: a discharge casing configured with a discharge flow pathway for providing a flow of effluent being pumped and discharged, the discharge flow pathway having a discharge flow pathway wall , the discharge casing also configured with a discharge casing insert borehole that passes from an outer surface of the discharge casing through the discharge flow pathway wall of the discharge casing ; characterized by a discharge casing insert having a discharge casing Venturi plug portion wherein the discharge casing insert is received from outside the discharge casing , passed through the discharge casing insert borehole at the outer surface of the discharge casing and positioned within the discharge casing insert borehole so as to be arranged from the outer surface of the discharge casing to the discharge flow pathway and the discharge casing Venturi plug portion configured with a restricted discharge flow pathway (14a', 14a", 140a', 140a") for providing a partial obstruction in the discharge flow pathway and the flow of the effluent being pumped and discharged. a discharge casing configured with a discharge flow pathway for providing a flow of effluent being pumped and discharged, the discharge flow pathway having a discharge flow pathway wall , the discharge casing also configured with a discharge casing insert borehole that passes from an outer surface of the discharge casing through the discharge flow pathway wall of the discharge casing ; characterized by a discharge casing insert having a discharge casing Venturi plug portion wherein the discharge casing insert is received from outside the discharge casing , passed through the discharge casing insert borehole at the outer surface of the discharge casing and positioned within the discharge casing insert borehole so as to be arranged from the outer surface of the discharge casing to the discharge flow pathway and the discharge casing Venturi plug portion configured with a restricted discharge flow pathway (14a', 14a", 140a', 140a") for providing a partial obstruction in the discharge flow pathway and the flow of the effluent being pumped and discharged.
A P2P data acceleration method, comprising: Receiving (Step S102) an authorization information packet sent by a client , and acquiring (Step S1016) a file identifier of the authorization information packet, wherein the file identifier corresponds to a file requested for downloading by the client; based on the file identifier, obtaining (Step S104; Step S1021, Step S1023) identification information of a target cache acceleration device corresponding to the file identifier through a preset algorithm; replacing (Step S106; Step S1012) original destination identification information of the authorization information packet with identification information of the target cache acceleration device; and sending (Step S108; Step S1018) the authorization information packet to the target cache acceleration device based on the replaced identification information of the authorization information packet. Receiving (Step S102) an authorization information packet sent by a client , and acquiring (Step S1016) a file identifier of the authorization information packet, wherein the file identifier corresponds to a file requested for downloading by the client; based on the file identifier, obtaining (Step S104; Step S1021, Step S1023) identification information of a target cache acceleration device corresponding to the file identifier through a preset algorithm; replacing (Step S106; Step S1012) original destination identification information of the authorization information packet with identification information of the target cache acceleration device; and sending (Step S108; Step S1018) the authorization information packet to the target cache acceleration device based on the replaced identification information of the authorization information packet.
A method for estimating a condition of a road surface (R) on which a tire is traveling, the method comprising: a first step (S10) of detecting an acceleration in a tire radial direction to be input to the tire by an acceleration sensor installed in the tire ; a second step (S11) of extracting, from the acceleration, an acceleration waveform that is a time-series waveform of the acceleration in the tire radial direction; a third step (S12) of obtaining a differential waveform of the acceleration waveform; a fourth step (S13) of calculating a rotation time of the tire from the differential waveform a fifth step (S14) of generating, by using the rotation time, a normalized waveform that is formed by normalizing the acceleration waveform or the differential waveform; characterised in that the method further comprises a sixth step (S17) of determining, from the normalized waveform, whether or not a water infiltration condition between the tire and the road surface (R) is in a condition to be shifted to a hydroplaning condition, wherein, the sixth step (S17) includes defining, as a determination area, an area that is 30% or more and 90% or less of a ground contact area in the normalized waveform, and determining, from the normalized waveform in the determination area, whether or not the water infiltration condition between the tire and the road surface (R) is in the condition to be shifted to the hydroplaning condition. a first step (S10) of detecting an acceleration in a tire radial direction to be input to the tire by an acceleration sensor installed in the tire ; a second step (S11) of extracting, from the acceleration, an acceleration waveform that is a time-series waveform of the acceleration in the tire radial direction; a third step (S12) of obtaining a differential waveform of the acceleration waveform; a fourth step (S13) of calculating a rotation time of the tire from the differential waveform a fifth step (S14) of generating, by using the rotation time, a normalized waveform that is formed by normalizing the acceleration waveform or the differential waveform; characterised in that the method further comprises a sixth step (S17) of determining, from the normalized waveform, whether or not a water infiltration condition between the tire and the road surface (R) is in a condition to be shifted to a hydroplaning condition, wherein, the sixth step (S17) includes defining, as a determination area, an area that is 30% or more and 90% or less of a ground contact area in the normalized waveform, and determining, from the normalized waveform in the determination area, whether or not the water infiltration condition between the tire and the road surface (R) is in the condition to be shifted to the hydroplaning condition.
A printing apparatus , comprising: a discharging head configured to discharge liquid on a printing medium mounted on an endless belt ; a transport unit configured to transport the printing medium in a transport direction; a medium press portion which is provided upstream of the endless belt in the transport direction and includes a medium pressing unit which compresses the printing medium; and a control portion configured to control the medium press portion, characterised in that the control portion is configured to store data which indicates a relationship between the pressing pressure applied to the printing medium by the medium pressing unit and the resultant height of the printing medium, and to control the medium pressing unit based on the stored data. a discharging head configured to discharge liquid on a printing medium mounted on an endless belt ; a transport unit configured to transport the printing medium in a transport direction; a medium press portion which is provided upstream of the endless belt in the transport direction and includes a medium pressing unit which compresses the printing medium; and a control portion configured to control the medium press portion, characterised in that the control portion is configured to store data which indicates a relationship between the pressing pressure applied to the printing medium by the medium pressing unit and the resultant height of the printing medium, and to control the medium pressing unit based on the stored data.
A ceramic circuit board configured to be joined to a lead terminal comprising: a ceramic substrate with a 1.0 mm thickness or less including a first surface and a second surface opposite the first surface , the first surface including a first area and a second area around the first area ; wherein the second area extends from the first area to end portions of the surface a first metal plate joined to the first area ; and a second metal plate joined to the second surface , wherein the first surface extends along a first direction and a second direction intersects the first direction, wherein the second area has a first waviness profile along a first side in the first direction of the first surface , the first waviness profile having one extreme value or less, and wherein the second area has a second waviness profile along a second side in the second direction of the first surface , the second waviness profile having not less than two nor more than three extreme values. a ceramic substrate with a 1.0 mm thickness or less including a first surface and a second surface opposite the first surface , the first surface including a first area and a second area around the first area ; wherein the second area extends from the first area to end portions of the surface a first metal plate joined to the first area ; and a second metal plate joined to the second surface , wherein the first surface extends along a first direction and a second direction intersects the first direction, wherein the second area has a first waviness profile along a first side in the first direction of the first surface , the first waviness profile having one extreme value or less, and wherein the second area has a second waviness profile along a second side in the second direction of the first surface , the second waviness profile having not less than two nor more than three extreme values.
An introducer sheath , comprising: a body having a lumen extending between a leading end and a trailing end and having a collapsed condition (6C1) with a first lateral cross-section, the body being configured to transition from the collapsed condition (6C1) to an expanded condition with a second lateral cross-section when an apparatus is passed through the lumen , the second lateral cross-section having a maximum dimension larger than a maximum dimension of the first lateral cross-section; characterized in that the first lateral cross-section is flower-shaped in the absence of external forces to the body and includes a plurality of petals each including an enlarged head and a tailored neck region , each petal having a collapsed condition when the body is in the collapsed condition (6C1), one or more petals of the plurality of petals capable of remaining in a collapsed condition or partially collapsed condition when the body is in the expanded condition,. a body having a lumen extending between a leading end and a trailing end and having a collapsed condition (6C1) with a first lateral cross-section, the body being configured to transition from the collapsed condition (6C1) to an expanded condition with a second lateral cross-section when an apparatus is passed through the lumen , the second lateral cross-section having a maximum dimension larger than a maximum dimension of the first lateral cross-section; characterized in that the first lateral cross-section is flower-shaped in the absence of external forces to the body and includes a plurality of petals each including an enlarged head and a tailored neck region , each petal having a collapsed condition when the body is in the collapsed condition (6C1), one or more petals of the plurality of petals capable of remaining in a collapsed condition or partially collapsed condition when the body is in the expanded condition,.
A compound engine system having a compressor, a turbine and a rotary engine (10; 110; 210; 310; 410), the engine having a stator body having walls defining an internal cavity , and a rotor body mounted for eccentric revolutions within the cavity , the rotor and stator bodies cooperating to provide rotating chambers of variable volume when the rotor moves relative to the stator, the engine comprising at least an inlet port (40; 140; 240; 340; 440), an exhaust port (44; 144; 244; 344) and a purge port (42; 142; 242; 442) defined in the stator body and communicating with the cavity , the inlet port (40; 140; 240; 340; 440) and purge port (42; 142; 242; 442) being in communication with an air source, the purge port (42; 142; 242; 442) being located rearwardly of the inlet port (40; 140; 240; 340; 440) and forwardly of the exhaust port (44; 144; 244; 344) relative to a direction of the rotor revolution (R), the purge port (42; 142; 242; 442) momentarily communicating with the exhaust port (44; 144; 244; 344) through each of the chambers when the rotor is positioned in a respective portion of the rotor revolution, wherein the rotor is configured and ports are located to prevent direct communication between the inlet port (40; 140; 240; 340; 440) and the exhaust port (44; 144; 244; 344) through the rotating chambers in any rotor position; and wherein the inlet and outlet ports are located relative to one another such that a volumetric compression ratio of the engine is lower than a volumetric expansion ratio of the engine, wherein the inlet port (40; 140; 240; 340; 440) and purge port (42; 142; 242; 442) communicate with the compressor and the exhaust port (44; 144; 244; 344) communicates with the turbine. the rotor is configured and ports are located to prevent direct communication between the inlet port (40; 140; 240; 340; 440) and the exhaust port (44; 144; 244; 344) through the rotating chambers in any rotor position; and wherein the inlet and outlet ports are located relative to one another such that a volumetric compression ratio of the engine is lower than a volumetric expansion ratio of the engine, wherein the inlet port (40; 140; 240; 340; 440) and purge port (42; 142; 242; 442) communicate with the compressor and the exhaust port (44; 144; 244; 344) communicates with the turbine.