mhurhangee/ep-ind-claims huggingface dataset:
A process for producing oil, comprising passing a saline source water having a total dissolved solids ("TDS") content of greater than 5,000 ppm through an ionic filter to produce treated water having reduced salinity relative to the source water while excluding at least a portion of the source water from passing through the ionic filter to form a retentate having increased salinity relative to the source water; utilizing at least part of the treated water having reduced salinity as at least a portion of an aqueous fluid having an ionic strength of at most 0.15 M and a total dissolved solids content of from 200 ppm to 10,000 ppm which is introduced into an oil-bearing formation; producing oil and water from the formation subsequent to the introduction of the aqueous fluid into the formation; mixing a demulsifier and a brine solution having a total dissolved solids content of greater than 10,000 ppm with at least a portion of the oil and water produced from the formation; and separating oil from the mixture of oil, water, demulsifier, and brine solution, wherein at least a portion of the retentate is used as at least a portion of the brine solution. passing a saline source water having a total dissolved solids ("TDS") content of greater than 5,000 ppm through an ionic filter to produce treated water having reduced salinity relative to the source water while excluding at least a portion of the source water from passing through the ionic filter to form a retentate having increased salinity relative to the source water; utilizing at least part of the treated water having reduced salinity as at least a portion of an aqueous fluid having an ionic strength of at most 0.15 M and a total dissolved solids content of from 200 ppm to 10,000 ppm which is introduced into an oil-bearing formation; producing oil and water from the formation subsequent to the introduction of the aqueous fluid into the formation; mixing a demulsifier and a brine solution having a total dissolved solids content of greater than 10,000 ppm with at least a portion of the oil and water produced from the formation; and separating oil from the mixture of oil, water, demulsifier, and brine solution, wherein at least a portion of the retentate is used as at least a portion of the brine solution.
A developer supply container which is detachably mountable to a developer receiving apparatus provided with a developer receiving portion including a developer receiving port and an engaged portion, the developer supply container being for supplying developer through the developer receiving port, the developer receiving portion being displaceable in a vertical direction crossing with an inserting direction of the developer supply container for mounting to said developer receiving apparatus, said developer supply container comprising: a developer accommodating portion configured to accommodate the developer; a discharge opening (3a4) configured to permit discharging of the developer in the developer accommodating portion to the developer receiving portion through the developer receiving port; and an engaging portion (3b2 and 3b4) including a first engaging portion (3b2) and a second engaging portion (3b4) engagable with the engaged portion, characterized by the first engaging portion (3b2) being inclined with respect to the inserting direction and displacing the developer receiving portion toward the developer supply container with a mounting operation of the developer supply container to the developer receiving apparatus so as to establish a connected state between the discharging opening (3a4) and the developer receiving port, the second engaging portion (3b4) extending in parallel with the inserting direction and maintaining the connected state between the discharging opening (3a4) and the developer receiving port so as to communicate the discharge opening (3a4) with the developer receiving port. a developer accommodating portion configured to accommodate the developer; a discharge opening (3a4) configured to permit discharging of the developer in the developer accommodating portion to the developer receiving portion through the developer receiving port; and an engaging portion (3b2 and 3b4) including a first engaging portion (3b2) and a second engaging portion (3b4) engagable with the engaged portion, characterized by the first engaging portion (3b2) being inclined with respect to the inserting direction and displacing the developer receiving portion toward the developer supply container with a mounting operation of the developer supply container to the developer receiving apparatus so as to establish a connected state between the discharging opening (3a4) and the developer receiving port, the second engaging portion (3b4) extending in parallel with the inserting direction and maintaining the connected state between the discharging opening (3a4) and the developer receiving port so as to communicate the discharge opening (3a4) with the developer receiving port.
A surgical device comprising: - at least one surgical tool comprising an end, called distal, configured to come in contact with a patient, and configured to be positioned in the patient, - at least one robotic mobile element on which the surgical tool is mounted, the robotic mobile element being configured to move said surgical tool, - at least one depth imaging tool configured to acquire at least one depth image at an acquisition area on the patient, said imaging tool being configured to move the acquisition area on the patient, said at least one imaging tool being independent of said at least one robotic mobile element, - a control tool configured to order an independent move of said at least one robotic mobile element and said imaging tool, - a control unit configured to receive information from the control tool and to order the move of said at least one robotic mobile element and/or the imaging tool so that the position of the acquisition area substantially coincides with the position of the distal end of the surgical tool, said control unit being configured to receive positional information coming from said at least one robotic mobile element and information coming from said imaging tool. - at least one surgical tool comprising an end, called distal, configured to come in contact with a patient, and configured to be positioned in the patient, - at least one robotic mobile element on which the surgical tool is mounted, the robotic mobile element being configured to move said surgical tool, - at least one depth imaging tool configured to acquire at least one depth image at an acquisition area on the patient, said imaging tool being configured to move the acquisition area on the patient, said at least one imaging tool being independent of said at least one robotic mobile element, - a control tool configured to order an independent move of said at least one robotic mobile element and said imaging tool, - a control unit configured to receive information from the control tool and to order the move of said at least one robotic mobile element and/or the imaging tool so that the position of the acquisition area substantially coincides with the position of the distal end of the surgical tool, said control unit being configured to receive positional information coming from said at least one robotic mobile element and information coming from said imaging tool.
A dispensing valve adapted to allow dispensing of a product, preferably a food product, for example a beverage, from a container which is preferably closed and preferably has the ability to collapse when product is dispensed therefrom, wherein the dispensing valve has an elastic membrane with one or more valves (1a-1d), which is/are closed when the membrane assumes an initial position (A or C), and openable when the membrane assumes a stretched position (B or D) towards a dispensing direction of the food product to allow dispensing of product from the container, the valve or valves (1b-1d) having contact with at least one support member when the membrane assumes its initial position (A or C), such that the support member prevents the valve or valves (1b-1d) from opening towards the support member, whereby air is prevented from passing through the valve or valves (1b-1d) to product present in said valve or valves, characterized in that the support member is designed at least partially as a tubular member with an end wall against which the membrane can abut, and in that the tubular member allows lateral through-flow of product between the container and the dispensing valve.
A substrate for an inkjet print head comprising: a base; a plurality of heating resistors for heating ink, the heating resistors being disposed on the base and producing heat in a case where the heating resistors are energized; a first protection layer disposed on the heating resistors and having electrical insulation properties; and a second protection layer disposed on the first protection layer and having conductivity, wherein the second protection layer includes individual sections disposed to individually cover the plurality of heating resistors, a common section connecting the individual sections, and connection sections interposed between the individual sections and the common section and connecting the individual sections and the common section, characterized in that the connection sections are disposed at positions to be in contact with ink, and include a material which changes to an electrically insulating film by an electrochemical reaction with the ink. a base; a plurality of heating resistors for heating ink, the heating resistors being disposed on the base and producing heat in a case where the heating resistors are energized; a first protection layer disposed on the heating resistors and having electrical insulation properties; and a second protection layer disposed on the first protection layer and having conductivity, wherein the second protection layer includes individual sections disposed to individually cover the plurality of heating resistors, a common section connecting the individual sections, and connection sections interposed between the individual sections and the common section and connecting the individual sections and the common section, characterized in that the connection sections are disposed at positions to be in contact with ink, and include a material which changes to an electrically insulating film by an electrochemical reaction with the ink.
A switchgear leakage current monitoring system for a high voltage or medium voltage switchgear, comprising: - at least one sensor (14, 16, 17); and - a leakage current monitoring unit; wherein, the at least one sensor comprises at least one conducting layer or electrode, wherein each sensor comprises a conducting layer or electrode; wherein, the at least one conducting layer or electrode is attached or integrated on at least one surface of at least one insulating component of a high voltage or medium voltage switchgear, wherein each insulating component has a conducting layer or electrode attached or integrated on its surface; wherein, the at least one sensor is configured to acquire at least one leakage current signal, wherein each sensor is configured to acquire a leakage current signal on a surface of the insulating component to which its corresponding conducting layer or electrode is attached or integrated; wherein, the at least sensor has at least one data connection to the leakage current monitoring unit; wherein, the leakage current monitoring unit is configured to be provided with at least one measurement data relating to the at least one leakage current signal via the at least one data connection; and wherein the at least one data connection comprises at least one wireless connection (24.2), and wherein a measurement unit is configured to provide one or more measurement data relating to the at least one leakage current wirelessly to the leakage current monitoring unit, and wherein the measurement unit is configured to be powered by leakage current it measures. - at least one sensor (14, 16, 17); and - a leakage current monitoring unit; wherein, the at least one sensor comprises at least one conducting layer or electrode, wherein each sensor comprises a conducting layer or electrode; wherein, the at least one conducting layer or electrode is attached or integrated on at least one surface of at least one insulating component of a high voltage or medium voltage switchgear, wherein each insulating component has a conducting layer or electrode attached or integrated on its surface; wherein, the at least one sensor is configured to acquire at least one leakage current signal, wherein each sensor is configured to acquire a leakage current signal on a surface of the insulating component to which its corresponding conducting layer or electrode is attached or integrated; wherein, the at least sensor has at least one data connection to the leakage current monitoring unit; wherein, the leakage current monitoring unit is configured to be provided with at least one measurement data relating to the at least one leakage current signal via the at least one data connection; and wherein the at least one data connection comprises at least one wireless connection (24.2), and wherein a measurement unit is configured to provide one or more measurement data relating to the at least one leakage current wirelessly to the leakage current monitoring unit, and wherein the measurement unit is configured to be powered by leakage current it measures.
A suspension for motorcycles comprising: a tube and a rod configured to slide coaxially one on the top of the other, by means of a cylindrical-type coupling, and a spring (3, 3') interposed therebetween said tube and said rod, characterized in that said spring (3, 3') comprises a plurality of annular lamellae stacked on top of one another, wherein adjacent lamellae of said plurality are connected to one another with at least one pair of connection elements, so that according to an axial direction, a pair of connection elements is angularly staggered with respect to an adjacent pair of connection elements, wherein said connection elements (5,5') are rigidly connected to said lamellae (2,2'), and wherein said spring comprises two annular end lamellae (22, 23) axially opposed to each other, said two annular end lamellae (22, 23) are connected to end-stroke elements (24, 25) of the tube and rod, respectively, to prevent a relative rotation between said tube and said rod, and so that said annular end lamellae (22, 23) can vary the mutual distance while maintaining a coaxial alignment of the annular lamellae, such that said spring allows an elastic bending along said axial direction, avoiding a torsional rotation around said axial direction, and since said spring result torsionally rigid, a relative rotation of rod with respect to tube is avoided. a tube and a rod configured to slide coaxially one on the top of the other, by means of a cylindrical-type coupling, and a spring (3, 3') interposed therebetween said tube and said rod, characterized in that said spring (3, 3') comprises a plurality of annular lamellae stacked on top of one another, wherein adjacent lamellae of said plurality are connected to one another with at least one pair of connection elements, so that according to an axial direction, a pair of connection elements is angularly staggered with respect to an adjacent pair of connection elements, wherein said connection elements (5,5') are rigidly connected to said lamellae (2,2'), and wherein said spring comprises two annular end lamellae (22, 23) axially opposed to each other, said two annular end lamellae (22, 23) are connected to end-stroke elements (24, 25) of the tube and rod, respectively, to prevent a relative rotation between said tube and said rod, and so that said annular end lamellae (22, 23) can vary the mutual distance while maintaining a coaxial alignment of the annular lamellae, such that said spring allows an elastic bending along said axial direction, avoiding a torsional rotation around said axial direction, and since said spring result torsionally rigid, a relative rotation of rod with respect to tube is avoided.
An aerial vehicle, comprising a fuselage; a telescoping wing assembly comprising two wings, each comprising a telescoping axis; and a wing root mechanism comprising a vertical rotation pivot operatively coupling said wing assembly to said fuselage, wherein said wing assembly rotates as a whole between a first position in which the telescoping axis of both wings is parallel to an axis of the fuselage and a second position in which the telescoping axis of both wings is perpendicular to the axis of the fuselage, wherein the wing root mechanism further comprises: a horizontal rotation pivot operatively coupling said wing assembly to said vertical rotation pivot where the horizontal rotation pivot allows said telescoping wing assembly to be tilted parallel to the fuselage in the first position. a horizontal rotation pivot operatively coupling said wing assembly to said vertical rotation pivot where the horizontal rotation pivot allows said telescoping wing assembly to be tilted parallel to the fuselage in the first position.
A method for transmitting, by a first user equipment, UE, V2X data to a second UE in a wireless communication system, the method comprising: broadcasting, by the first UE, a Direct Communication Request message including information configured that a response is transmitted only when the Direct Communication Request message is received a specific number of times or more within a specific interval, wherein the information includes the specific number of times and the specific interval; receiving, in a unicast manner, a Direct Communication Accept message from the second UE receiving the Direct Communication Request message more than the specific number of times within the specific interval; and transmitting data of a V2X service to the second UE in a unicast manner, wherein a source Layer-2 identity, ID, of the first UE included in the broadcast Direct Communication Request message is used by the second UE as a destination Layer-2 ID of the Direct Communication Accept message for unicast transmission of the data of the V2X service. broadcasting, by the first UE, a Direct Communication Request message including information configured that a response is transmitted only when the Direct Communication Request message is received a specific number of times or more within a specific interval, wherein the information includes the specific number of times and the specific interval; receiving, in a unicast manner, a Direct Communication Accept message from the second UE receiving the Direct Communication Request message more than the specific number of times within the specific interval; and transmitting data of a V2X service to the second UE in a unicast manner, wherein a source Layer-2 identity, ID, of the first UE included in the broadcast Direct Communication Request message is used by the second UE as a destination Layer-2 ID of the Direct Communication Accept message for unicast transmission of the data of the V2X service.
A low fat mayonnaise composition, comprising 20 to 50 wt% of vegetable oil, 1 to 2 wt% of sugar, 1 to 2 wt% of salt, 3 to 10 wt % of vinegar, 1 to 3 wt% cellulose ether, 5 to 10 wt% of an isolated soy protein, and water as the remainder with respect to the total weight of the composition, wherein the cellulose ether is hydroxypropylmethyl cellulose, and wherein the hydroxypropylmethyl cellulose has a structure, in which 19 to 30% of a methoxyl group and 4 to 20% of a hydroxypropyl group are substituted at a main chain of the cellulose..
Method for correcting the thrust vector delivered by a thrust unit (12a, 12b, 12c, 12d, 12e, 12f, 12g, 12h) of a thrust system (TSa, TSb, TSc, TSd, TSe, TSf, TSg, TSh) comprising processing means (30, 30a) arranged to implement said method, said thrust unit comprising a mechanical rotor (12a-r) moved in rotation by a rotary shaft of an internal combustion engine (12a-e) in response to a power command, said method comprising, iteratively: - a step of converting a thrust command into a rotation speed setpoint of the shaft of the internal combustion engine (12a-e) of the thrust unit; - a step of producing an error value between said rotation speed setpoint and the measured rotation speed of said shaft, by a measurement sensor (12a-s) cooperating with said internal combustion engine (12a-e) and with said processing means (30, 30a); - a step of generating the power command based on said error value between said rotation speed setpoint and the measured rotation speed of said shaft of the internal combustion engine (12a-e) so as to reduce said error value and thus control the rotation speed of the shaft of the internal combustion engine (12a-e); said method being characterized in that: - the thrust system also comprises electrical correction means (19a, 19b, 19c, 19d, 19e, 19f, 19g, 19h) of the thrust vector delivered by said thrust unit; - and in that said method comprises an iterative step, independent of said speed control of the rotation of the shaft of the internal combustion engine (12a-e), for generating an actuation command of said electrical correction means of the thrust vector (19a-e, 19a-3) based on said error value between the rotation speed setpoint and the measured rotation speed of the shaft of the internal combustion engine (12a-e). - a step of converting a thrust command into a rotation speed setpoint of the shaft of the internal combustion engine (12a-e) of the thrust unit; - a step of producing an error value between said rotation speed setpoint and the measured rotation speed of said shaft, by a measurement sensor (12a-s) cooperating with said internal combustion engine (12a-e) and with said processing means (30, 30a); - a step of generating the power command based on said error value between said rotation speed setpoint and the measured rotation speed of said shaft of the internal combustion engine (12a-e) so as to reduce said error value and thus control the rotation speed of the shaft of the internal combustion engine (12a-e); - the thrust system also comprises electrical correction means (19a, 19b, 19c, 19d, 19e, 19f, 19g, 19h) of the thrust vector delivered by said thrust unit; - and in that said method comprises an iterative step, independent of said speed control of the rotation of the shaft of the internal combustion engine (12a-e), for generating an actuation command of said electrical correction means of the thrust vector (19a-e, 19a-3) based on said error value between the rotation speed setpoint and the measured rotation speed of the shaft of the internal combustion engine (12a-e).