mhurhangee/ep-ind-claims huggingface dataset:
A process for producing a liquid ejection head including, at a surface of a substrate, an ejection orifice member having a plurality of ejection orifices for ejecting liquid substantially perpendicular to the substrate surface, provided along an arrangement direction, the process comprising: preparing the substrate provided with a resin layer which contains a photocurable resin; carrying out a first exposure treatment and a second exposure treatment which are each subjecting the resin layer to exposure; and forming the ejection orifices from the resin layer subjected to the first exposure treatment and the second exposure treatment, characterized in that the first exposure treatment is subjecting to exposure a portion of the resin layer corresponding to first side wall portions which define two inner surfaces of an ejection orifice at opposite ends in the arrangement direction and on the side of the liquid flow outlet of the ejection orifice; the second exposure treatment is subjecting to exposure a portion of the resin layer corresponding to second side wall portions which define two inner surfaces of the same ejection orifice at opposite ends in an orthogonal direction, orthogonal to the arrangement direction and parallel to the substrate surface, and on the side of the liquid flow outlet of the ejection orifice; and an inclination angle of the first side wall portions with respect to the substrate surface differs from an inclination angle of the second side wall portions with respect to the substrate surface. preparing the substrate provided with a resin layer which contains a photocurable resin; carrying out a first exposure treatment and a second exposure treatment which are each subjecting the resin layer to exposure; and forming the ejection orifices from the resin layer subjected to the first exposure treatment and the second exposure treatment, characterized in that the first exposure treatment is subjecting to exposure a portion of the resin layer corresponding to first side wall portions which define two inner surfaces of an ejection orifice at opposite ends in the arrangement direction and on the side of the liquid flow outlet of the ejection orifice; the second exposure treatment is subjecting to exposure a portion of the resin layer corresponding to second side wall portions which define two inner surfaces of the same ejection orifice at opposite ends in an orthogonal direction, orthogonal to the arrangement direction and parallel to the substrate surface, and on the side of the liquid flow outlet of the ejection orifice; and an inclination angle of the first side wall portions with respect to the substrate surface differs from an inclination angle of the second side wall portions with respect to the substrate surface.
A fat or oil composition, comprising 50 mass% or more of diacylglycerols satisfying the following to: 20 to 92 mass% of a disaturated diacylglycerol in the diacylglycerols; 60 mass% or less of a monosaturated-monounsaturated diacylglycerol in the diacylglycerols; 8 to 80 mass% of a diunsaturated diacylglycerol in the diacylglycerols; and 20 mass% or more of a total content of saturated fatty acids having 10, 12, and 14 carbon atoms in saturated fatty acids constituting the diacylglycerols. 20 to 92 mass% of a disaturated diacylglycerol in the diacylglycerols; 60 mass% or less of a monosaturated-monounsaturated diacylglycerol in the diacylglycerols; 8 to 80 mass% of a diunsaturated diacylglycerol in the diacylglycerols; and 20 mass% or more of a total content of saturated fatty acids having 10, 12, and 14 carbon atoms in saturated fatty acids constituting the diacylglycerols.
A memory device comprising at least one memory stack electrically connected in series with a selection transistor, the memory device comprising a substrate over which the selection transistor comprises: - a semiconductor layer comprising several first areas superimposed on top of one another, the first areas forming an electrical conduction channel of the selection transistor; - an electrostatic control gate and a gate dielectric layer of the selection transistor, parts of the gate dielectric layer being each arranged between a part (106, 108) of the electrostatic control gate and one of the first areas of the semiconductor layer; - dielectric spacers arranged against sidewalls of the electrostatic control gate; - contact regions (116, 118) electrically coupled to the first areas of the semiconductor layer via second areas of the semiconductor layer, the second areas of the semiconductor layer extending between the contact regions (116, 118) and the dielectric spacers, the contact regions (116, 118) forming source/drain regions of the selection transistor. wherein one of the contact regions comprises the memory stack interposed between a first conductive portion, electrically connecting the memory stack to the semiconductor layer, and a second conductive portion forming an electrical contact of the memory stack; and wherein the second areas of the semiconductor layer are not arranged directly against the electrostatic control gate and form a continuous layer with the first areas. - a semiconductor layer comprising several first areas superimposed on top of one another, the first areas forming an electrical conduction channel of the selection transistor; - an electrostatic control gate and a gate dielectric layer of the selection transistor, parts of the gate dielectric layer being each arranged between a part (106, 108) of the electrostatic control gate and one of the first areas of the semiconductor layer; - dielectric spacers arranged against sidewalls of the electrostatic control gate; - contact regions (116, 118) electrically coupled to the first areas of the semiconductor layer via second areas of the semiconductor layer, the second areas of the semiconductor layer extending between the contact regions (116, 118) and the dielectric spacers, the contact regions (116, 118) forming source/drain regions of the selection transistor. wherein one of the contact regions comprises the memory stack interposed between a first conductive portion, electrically connecting the memory stack to the semiconductor layer, and a second conductive portion forming an electrical contact of the memory stack; and wherein the second areas of the semiconductor layer are not arranged directly against the electrostatic control gate and form a continuous layer with the first areas.
An apparatus for preparing a beverage from a solvent and ingredients, said apparatus comprising: - a container for containing said solvent, - an infuser for containing said ingredients, - a pumping system for carrying solvent from said container to said infuser, characterized in that the infuser is arranged so as to assume: - a first position allowing the solvent carried to the infuser by the pumping system to circulate inside the infuser containing said ingredients, and allowing said solvent circulating inside the infuser to be carried back into said container, and - a second position allowing the solvent carried to the infuser by the pumping system to circulate outside the infuser containing said ingredients, and allowing said solvent circulating outside the infuser to be carried outside said container. - a container for containing said solvent, - an infuser for containing said ingredients, - a pumping system for carrying solvent from said container to said infuser, - a first position allowing the solvent carried to the infuser by the pumping system to circulate inside the infuser containing said ingredients, and allowing said solvent circulating inside the infuser to be carried back into said container, and - a second position allowing the solvent carried to the infuser by the pumping system to circulate outside the infuser containing said ingredients, and allowing said solvent circulating outside the infuser to be carried outside said container.
A method for monitoring the operating state of a first ultrasonic transducer in an ultrasonic flowmeter with at least one measuring tube and at least two ultrasonic transducers (3, 4), comprising the following steps: a) Providing a first value or multiple first values which relate to the geometric arrangement of the first ultrasonic transducer in the measuring tube and/or to the geometric arrangement of the first ultrasonic transducer relative to a second ultrasonic transducer; b) Determining a second value or multiple second values for a flow velocity (u) of a medium located in the measuring tube; and c) Providing a third value and/or multiple third values for the temperature and/or the pressure (p) of the medium located in the measuring tube; characterized by the following steps: d) Simulating a target value for a signal strength (SS Simulation) of an ultrasonic signal or a signal-to-noise ratio (SNR Simulation) of the ultrasonic signal using the first, second, and third values; and e) Comparing the simulated target value for the signal strength (SS Simulation) with a measured real value of the signal strength (SS Mess) of the ultrasonic signal or comparing the simulated target value for the signal-to-noise ratio (SNR Simulation) with a measured real value of the signal-to-noise ratio (SNR Mess) of the ultrasonic signal. a) Providing a first value or multiple first values which relate to the geometric arrangement of the first ultrasonic transducer in the measuring tube and/or to the geometric arrangement of the first ultrasonic transducer relative to a second ultrasonic transducer; b) Determining a second value or multiple second values for a flow velocity (u) of a medium located in the measuring tube; and c) Providing a third value and/or multiple third values for the temperature and/or the pressure (p) of the medium located in the measuring tube; characterized by the following steps: d) Simulating a target value for a signal strength (SS Simulation) of an ultrasonic signal or a signal-to-noise ratio (SNR Simulation) of the ultrasonic signal using the first, second, and third values; and e) Comparing the simulated target value for the signal strength (SS Simulation) with a measured real value of the signal strength (SS Mess) of the ultrasonic signal or comparing the simulated target value for the signal-to-noise ratio (SNR Simulation) with a measured real value of the signal-to-noise ratio (SNR Mess) of the ultrasonic signal.
An iron-based sintered sliding member consisting of: all by mass% S: 3.24 to 8.10 %, Mn: 0.02 to 0.9 %, optionally, Cu: 20 % or less, at least one of Ni and Mo, at 13 % or less, each, remainder: Fe and inevitable impurities, as an overall composition, wherein the metallic structure comprises a base, which is constructed by a ferrite structure, in which sulfide particles are precipitated and dispersed inside of particles of a powder, and pores, and wherein the sulfide particles are dispersed at a ratio of 15 to 30 vol% versus the base, and in the sulfide particles, a total area of the sulfide particles having 10 μm or more of maximal particle diameter accounts 60 % or more of a total area of entire of the sulfide particles.
A user equipment, UE (402, 500), the UE (402, 500) being in coverage of a cell of an evolved universal terrestrial radio access network, E-UTRAN, wherein the UE (402, 500) is configured to: determine a reference signal received power, RSRP, measurement of a synchronization signal received from the cell of the E-UTRAN, wherein the synchronization signal is a cell-specific reference signal, CRS; compare the RSRP measurement to a signal strength threshold that has been signaled to the UE (402, 500) from an evolved Node B, eNB; and transmit, in response to a determination that the RSRP measurement is below the signal strength threshold, a direct link synchronization signal for discovery or communication and autonomously activate the UE (402, 500) as a synchronization source, wherein the UE (402, 500) is in Radio Resource Control, RRC, idle mode; and the UE (402, 500) is configured to receive direct link synchronization signal configuration broadcasted by the eNB on a system information block, and wherein the transmitted direct link synchronization signal for discovery or communication is configured based on the received direct link synchronization signal configuration. determine a reference signal received power, RSRP, measurement of a synchronization signal received from the cell of the E-UTRAN, wherein the synchronization signal is a cell-specific reference signal, CRS; compare the RSRP measurement to a signal strength threshold that has been signaled to the UE (402, 500) from an evolved Node B, eNB; and transmit, in response to a determination that the RSRP measurement is below the signal strength threshold, a direct link synchronization signal for discovery or communication and autonomously activate the UE (402, 500) as a synchronization source, wherein the UE (402, 500) is in Radio Resource Control, RRC, idle mode; and the UE (402, 500) is configured to receive direct link synchronization signal configuration broadcasted by the eNB on a system information block, and wherein the transmitted direct link synchronization signal for discovery or communication is configured based on the received direct link synchronization signal configuration.
Vibration generator, comprising two shaft groups, on which at least two groups of unbalanced masses are arranged and which are connected to at least one drive unit by means of which they are set in rotation, where the shaft groups (1, 2) are connected to the one or more drive units in such a way that the ratio of the speed of one shaft group (1, 2) to that of the other is essentially 1: 2, characterised in that the ratio of the static moments of the shaft groups (1, 2) fitted with the groups of unbalanced masses (101, 201) is between 6: 1 and 10: 1, where means of adjusting the direction of action of the vibration generator are provided, which means of adjusting the direction of action comprise a swivel motor, by means of which the phasing of at least two groups of unbalanced masses (101, 201) rotating at different speeds from each other is changed.
A method for improving performance of a computer network, the method comprising: receiving, by a device intermediary to a client and a server, multiplexed application layer streams of network traffic from the client to the server via a first transport control protocol, TCP, connection between the device and the client, the multiplexed application layer streams of network traffic including a first data packet with a first sequence number, the device forwarding the first data packet with the first sequence number to the server via a second TCP connection between the device and the server; transmitting, by the device via the first TCP connection, a hypertext transfer protocol, HTTP, ping frame of an application layer protocol to the client and in response thereto the client increases a next sequence number used for the first TCP connection by a size of a data payload of the HTTP ping frame; receiving, by the device, a HTTP ping response frame from the client, the HTTP ping response frame transmitted by the client responsive to the HTTP ping frame; receiving, by the device via the first TCP connection, a second data packet from the client with the next sequence number comprising a second sequence number increased by the size of the data payload of the HTTP ping frame; adjusting, by the device, the second sequence number of the second data packet to be a third sequence number expected by the second TCP connection between the device and the server; and forwarding, by the device via the second TCP connection, the second data packet having the third sequence number to the server. receiving, by a device intermediary to a client and a server, multiplexed application layer streams of network traffic from the client to the server via a first transport control protocol, TCP, connection between the device and the client, the multiplexed application layer streams of network traffic including a first data packet with a first sequence number, the device forwarding the first data packet with the first sequence number to the server via a second TCP connection between the device and the server; transmitting, by the device via the first TCP connection, a hypertext transfer protocol, HTTP, ping frame of an application layer protocol to the client and in response thereto the client increases a next sequence number used for the first TCP connection by a size of a data payload of the HTTP ping frame; receiving, by the device, a HTTP ping response frame from the client, the HTTP ping response frame transmitted by the client responsive to the HTTP ping frame; receiving, by the device via the first TCP connection, a second data packet from the client with the next sequence number comprising a second sequence number increased by the size of the data payload of the HTTP ping frame; adjusting, by the device, the second sequence number of the second data packet to be a third sequence number expected by the second TCP connection between the device and the server; and forwarding, by the device via the second TCP connection, the second data packet having the third sequence number to the server.
Closing device for a sliding door/window, comprising: a first portion mountable on a jamb of the door/window, a second portion mountable on the door/window, wherein the first portion comprises a male locking element, wherein the second portion comprises a female locking element, wherein the female locking element comprises an element with variable cross section in which the male locking element can be inserted, wherein the female locking element comprises one or more interference elements suited to be positioned between the element with variable cross section and the male locking element, wherein the female locking element comprises a release element configured so as to act on the one or more interference elements, characterized in that the first portion comprises a return element acting on the male locking element and configured so as to apply a force onto the male locking element towards the first portion. a first portion mountable on a jamb of the door/window, a second portion mountable on the door/window, wherein the first portion comprises a male locking element, wherein the second portion comprises a female locking element, wherein the female locking element comprises an element with variable cross section in which the male locking element can be inserted, wherein the female locking element comprises one or more interference elements suited to be positioned between the element with variable cross section and the male locking element, wherein the female locking element comprises a release element configured so as to act on the one or more interference elements, characterized in that the first portion comprises a return element acting on the male locking element and configured so as to apply a force onto the male locking element towards the first portion.
A one-part tooth implant (10, 10', 10"), comprising: - an anchoring region (30, 30', 30"), and - an abutment region (20, 20', 20"), wherein the one-part tooth implant further comprises: - a bending region (40, 40', 40"), which is arranged on an end of the abutment region (20, 20', 20") facing toward the anchoring region, between the abutment region (20, 20', 20") and the anchoring region (30, 30', 30"), - a bearing region (60, 60', 60"), which is arranged on an end of the anchoring region (30, 30', 30") facing toward the abutment region, between the bending region (40, 40', 40") and the anchoring region (30, 30', 30"), wherein the bending region (40, 40', 40") has a smallest cross section, which is arranged in a half of the bending region (40, 40', 40") facing toward the anchoring region, characterized in that the cross section of the bending region (40, 40', 40") continuously enlarges, originating from the smallest cross section toward an end of the bending region (40, 40', 40") facing toward the abutment region, so that, in the event of bending stress, under the effect of the bending torque, which increases linearly toward the abutment region, after exceeding the yield stress, the flowing procedures are homogeneously distributed in the material volume of the bending region and no local damage of the material microstructure thus results. - an anchoring region (30, 30', 30"), and - an abutment region (20, 20', 20"), - a bending region (40, 40', 40"), which is arranged on an end of the abutment region (20, 20', 20") facing toward the anchoring region, between the abutment region (20, 20', 20") and the anchoring region (30, 30', 30"), - a bearing region (60, 60', 60"), which is arranged on an end of the anchoring region (30, 30', 30") facing toward the abutment region, between the bending region (40, 40', 40") and the anchoring region (30, 30', 30"),
A composite repair tool, comprising: an alignment template having a damage sizing opening, wherein the alignment template is configured to be secured to a repair surface on a composite structure; a plurality of damage sizing sheets (20a-20e) carried by the alignment template and having a plurality of concentric damage sizing openings, respectively, registering with the damage sizing opening of the alignment template; and the damage sizing openings progressively decreasing in diameter from the alignment template through the plurality of damage sizing sheets, respectively. an alignment template having a damage sizing opening, wherein the alignment template is configured to be secured to a repair surface on a composite structure; a plurality of damage sizing sheets (20a-20e) carried by the alignment template and having a plurality of concentric damage sizing openings, respectively, registering with the damage sizing opening of the alignment template; and the damage sizing openings progressively decreasing in diameter from the alignment template through the plurality of damage sizing sheets, respectively.
An apparatus comprising: a processor; a memory that stores code executable by the processor to: receive speech input from a user of an electronic device; convert the speech to text and predict a possible next character; receive a gesture from the user; associate the received gesture with a character, and input the character into the text, characterized in that a combined confidence score is used to associate the received gesture with a character, wherein the combined confidence score is based on a character confidence score and a gesture confidence score, and wherein the gesture confidence score is a measure of how close the gesture is to a stored gesture associated with a character and the character confidence score is the prediction of a next character after the text. a processor; a memory that stores code executable by the processor to: receive speech input from a user of an electronic device; convert the speech to text and predict a possible next character; receive a gesture from the user; associate the received gesture with a character, and input the character into the text, characterized in that a combined confidence score is used to associate the received gesture with a character, wherein the combined confidence score is based on a character confidence score and a gesture confidence score, and wherein the gesture confidence score is a measure of how close the gesture is to a stored gesture associated with a character and the character confidence score is the prediction of a next character after the text. receive speech input from a user of an electronic device; convert the speech to text and predict a possible next character; receive a gesture from the user; associate the received gesture with a character, and input the character into the text, characterized in that a combined confidence score is used to associate the received gesture with a character, wherein the combined confidence score is based on a character confidence score and a gesture confidence score, and wherein the gesture confidence score is a measure of how close the gesture is to a stored gesture associated with a character and the character confidence score is the prediction of a next character after the text.