mhurhangee/ep-ind-claims huggingface dataset:
A surface acoustic wave tag device, comprising an acoustic wave propagating substrate (202, 324, 424, 502, 604, 700), at least one transducer structure (204, 306, 406, 610) provided over the substrate (202, 324, 424, 502, 604, 700) comprising inter-digitated comb electrodes (216, 218, 314,316), and at least one reflecting means, the reflecting means comprising at least one reflector (206, 208, 210, 308, 310, 312, 616, 618, 620), positioned at a distance with respect to the at least one transducer structure (204, 306, 406, 610) in the direction of propagation of an acoustic wave, characterised in that the acoustic wave propagation substrate (202, 324, 424, 502, 604, 700) is a composite substrate (202, 324, 424, 502, 604, 700) comprising a base substrate (226, 504, 602, 704) and a piezoelectric layer (224, 506, 600, 702), the thickness of the base substrate being larger than the thickness of the piezoelectric layer; wherein the crystallographic orientation of the piezoelectric layer (224, 506, 600, 702) with respect to the base substrate (226, 504, 602, 704) is such that the propagation of a shear wave inside the piezoelectric layer (224, 506, 600, 702) and in the direction of propagation corresponding to the acoustic wave is enabled. an acoustic wave propagating substrate (202, 324, 424, 502, 604, 700), at least one transducer structure (204, 306, 406, 610) provided over the substrate (202, 324, 424, 502, 604, 700) comprising inter-digitated comb electrodes (216, 218, 314,316), and at least one reflecting means, the reflecting means comprising at least one reflector (206, 208, 210, 308, 310, 312, 616, 618, 620), positioned at a distance with respect to the at least one transducer structure (204, 306, 406, 610) in the direction of propagation of an acoustic wave, characterised in that the acoustic wave propagation substrate (202, 324, 424, 502, 604, 700) is a composite substrate (202, 324, 424, 502, 604, 700) comprising a base substrate (226, 504, 602, 704) and a piezoelectric layer (224, 506, 600, 702), the thickness of the base substrate being larger than the thickness of the piezoelectric layer; wherein the crystallographic orientation of the piezoelectric layer (224, 506, 600, 702) with respect to the base substrate (226, 504, 602, 704) is such that the propagation of a shear wave inside the piezoelectric layer (224, 506, 600, 702) and in the direction of propagation corresponding to the acoustic wave is enabled.
A microprocessor, comprising: a predicting unit having storage for holding a prediction history of characteristics of instructions previously executed by the microprocessor, wherein the predicting unit accumulates the prediction history and uses the prediction history to make predictions related to subsequent instruction executions; wherein the storage comprises a plurality of portions separately controllable for accumulating the prediction history; and a control unit that detects the microprocessor is running an operating system routine and controls the predicting unit to use only a fraction of the plurality of portions of the storage to accumulate the prediction history while the microprocessor is running the operating system routine; and characterized by: a table of operating system routine identifiers each identifying a respective operating system routine, wherein each respective operating system routine has an associated control information that specifies the fraction of the plurality of portions of the storage the control unit controls the predicting unit to use to accumulate the prediction history while the microprocessor is running the associated operating system routine. a predicting unit having storage for holding a prediction history of characteristics of instructions previously executed by the microprocessor, wherein the predicting unit accumulates the prediction history and uses the prediction history to make predictions related to subsequent instruction executions; wherein the storage comprises a plurality of portions separately controllable for accumulating the prediction history; and a control unit that detects the microprocessor is running an operating system routine and controls the predicting unit to use only a fraction of the plurality of portions of the storage to accumulate the prediction history while the microprocessor is running the operating system routine; and characterized by: a table of operating system routine identifiers each identifying a respective operating system routine, wherein each respective operating system routine has an associated control information that specifies the fraction of the plurality of portions of the storage the control unit controls the predicting unit to use to accumulate the prediction history while the microprocessor is running the associated operating system routine. a table of operating system routine identifiers each identifying a respective operating system routine, wherein each respective operating system routine has an associated control information that specifies the fraction of the plurality of portions of the storage the control unit controls the predicting unit to use to accumulate the prediction history while the microprocessor is running the associated operating system routine.
An ophthalmic apparatus, comprising: - a resting member configured to provide rest for a human patient; - an ophthalmic device (110; 210) configured to perform one or more procedures with respect to an eye of the patient resting on the resting member, the one or more procedures including at least one of an eye-surgical, therapeutic and diagnostic procedure; characterised in that the apparatus is further provided with - a user interface device configured to receive log-in data from a user; and - a controller configured to access stored user profile data based on the log-in data, the user profile data comprising configuration data specific for the user, the configuration data representing adjustment parameter/ value-pairs for customizing one or more configurable components of the apparatus specifically for the user, and configure the one or more configurable components of the apparatus using the configuration data of the accessed user profile data. - a resting member configured to provide rest for a human patient; - an ophthalmic device (110; 210) configured to perform one or more procedures with respect to an eye of the patient resting on the resting member, the one or more procedures including at least one of an eye-surgical, therapeutic and diagnostic procedure; characterised in that the apparatus is further provided with - a user interface device configured to receive log-in data from a user; and - a controller configured to access stored user profile data based on the log-in data, the user profile data comprising configuration data specific for the user, the configuration data representing adjustment parameter/ value-pairs for customizing one or more configurable components of the apparatus specifically for the user, and configure the one or more configurable components of the apparatus using the configuration data of the accessed user profile data.
A contact assembly (100-1, 100-2) for use in a vacuum interrupter, the contact assembly comprising: a contact disc of a first electrically conductive material; a coil, of a second electrically conductive material, including multiple helical sections that are oriented axially with respect to a common central axis, wherein each of the helical sections includes a proximal end and a distal end, wherein each of the helical sections is connected at the proximal end to a base made from the second electrically conductive material, and wherein each of the helical sections is connected at the distal end to the contact disc; and a contact support centered axially within the coil and extending from the base to the contact disc; characterised in that the contact assembly (100-1, 100-2) further comprises: a support disc, connected to the base, wherein the base is interposed along the common central axis between the support disc and the helical sections, wherein the support disc is made from a material having an electrical resistivity that does not affect an axial magnetic field generated by the coil. a contact disc of a first electrically conductive material; a coil, of a second electrically conductive material, including multiple helical sections that are oriented axially with respect to a common central axis, wherein each of the helical sections includes a proximal end and a distal end, wherein each of the helical sections is connected at the proximal end to a base made from the second electrically conductive material, and wherein each of the helical sections is connected at the distal end to the contact disc; and wherein each of the helical sections includes a proximal end and a distal end, wherein each of the helical sections is connected at the proximal end to a base made from the second electrically conductive material, and wherein each of the helical sections is connected at the distal end to the contact disc; and a contact support centered axially within the coil and extending from the base to the contact disc; characterised in that the contact assembly (100-1, 100-2) further comprises: a support disc, connected to the base, wherein the base is interposed along the common central axis between the support disc and the helical sections, wherein the support disc is made from a material having an electrical resistivity that does not affect an axial magnetic field generated by the coil. a support disc, connected to the base, wherein the base is interposed along the common central axis between the support disc and the helical sections, wherein the support disc is made from a material having an electrical resistivity that does not affect an axial magnetic field generated by the coil.
A method for data transmission between register files, characterized by: reading data from a source register file at a Stage i of an instruction pipeline; and transmitting the read data to a destination register file using an idle instruction pipeline; wherein the reading data from a source register file at a Stage i of an instruction pipeline comprises: writing the read data into a temporary register x, and writing a preset mask into a temporary register y; wherein the transmitting the read data to a destination register file using an idle instruction pipeline comprises: at a Stage (i+1), combining data in the temporary register y and data in the temporary register x into {y, x}, and writing the {y, x} into the Stage (i+1) of the idle instruction pipeline; and letting the data {y,x} flow stage by stage along the idle instruction pipeline into a next stage, wherein the idle instruction pipeline serves as a data bus; after j clock cycles, taking the data {y,x} from the idle instruction pipeline to the destination register file at a Stage (i+j). reading data from a source register file at a Stage i of an instruction pipeline; and transmitting the read data to a destination register file using an idle instruction pipeline; wherein the reading data from a source register file at a Stage i of an instruction pipeline comprises: writing the read data into a temporary register x, and writing a preset mask into a temporary register y; wherein the transmitting the read data to a destination register file using an idle instruction pipeline comprises: at a Stage (i+1), combining data in the temporary register y and data in the temporary register x into {y, x}, and writing the {y, x} into the Stage (i+1) of the idle instruction pipeline; and letting the data {y,x} flow stage by stage along the idle instruction pipeline into a next stage, wherein the idle instruction pipeline serves as a data bus; after j clock cycles, taking the data {y,x} from the idle instruction pipeline to the destination register file at a Stage (i+j).
An optical waveguide apparatus (200, 600) for conveying image-bearing light beams (260, 262, 660, 668) comprising: a waveguide (220, 620) having an input region (226, 626) and an output region (228, 628), and having a first parallel planar surface (224, 624) and a second parallel planar surface (222, 622) that extend between the input region (226, 626) and the output region; a first in-coupling diffractive optic (240, 640) at the first parallel planar surface (224, 624) operable to direct a first subset of image-bearing light beams (260, 660) into the waveguide (220, 620) to propagate as a first subset of in-coupled image-bearing light beams (280, 664) from the input region (226, 626) to the output region (228, 628); and a second in-coupling diffractive optic (242, 642) at the second parallel planar surface (222, 622) operable to direct a second subset of image-bearing light beams (262, 668) into the waveguide (220, 620) to propagate as a second subset of in-coupled image-bearing light beams (282, 702) from the input region (226, 626) to the output region (228, 628); characterised in that the first and second in-coupling diffractive optics (240, 640, 242, 642) are offset with respect to each other in a transverse direction to a direction from the input region (226, 626) to the output region (228, 628). a waveguide (220, 620) having an input region (226, 626) and an output region (228, 628), and having a first parallel planar surface (224, 624) and a second parallel planar surface (222, 622) that extend between the input region (226, 626) and the output region; a first in-coupling diffractive optic (240, 640) at the first parallel planar surface (224, 624) operable to direct a first subset of image-bearing light beams (260, 660) into the waveguide (220, 620) to propagate as a first subset of in-coupled image-bearing light beams (280, 664) from the input region (226, 626) to the output region (228, 628); and a second in-coupling diffractive optic (242, 642) at the second parallel planar surface (222, 622) operable to direct a second subset of image-bearing light beams (262, 668) into the waveguide (220, 620) to propagate as a second subset of in-coupled image-bearing light beams (282, 702) from the input region (226, 626) to the output region (228, 628); characterised in that the first and second in-coupling diffractive optics (240, 640, 242, 642) are offset with respect to each other in a transverse direction to a direction from the input region (226, 626) to the output region (228, 628). characterised in that the first and second in-coupling diffractive optics (240, 640, 242, 642) are offset with respect to each other in a transverse direction to a direction from the input region (226, 626) to the output region (228, 628).
Intermediate tank made of polyethylene for a vacuum toilet, having a seat, a bowl arranged therebelow, pipes, and controlled valves for transporting waste matter from the bowl into the intermediate tank and from the latter into a sewer line, wherein the aforementioned elements of the vacuum toilet are accommodated substantially in the space below the seat, characterized in that the material of the intermediate tank is crosslinked in some regions by means of high-energy radiation.
A method for hydrostatic internal pressure-testing a pressure vessel, characterised in that said method comprises applying pressure to the vessel containing a test liquid until a desired test pressure is reached, wherein the test liquid comprises a halogenated compound selected from the group consisting of tropodegradable halogenated compounds, fluorinated compounds, halogenated ketones, halogenated alkenes and halogenated ethers.
A method for determining pronunciation issues, comprising: receiving text comprising sentences for a Text-To-Speech component and a recording of the text that is used as a reference for the text; receiving synthesized speech generated by the TTS component using the text as input to the TTS component; evaluating results received by an evaluation performed at a text level by determining a similarity of the synthesized speech to the recording; evaluating results obtained from a Speech Recognition component related to different inputs to the SR component comprising the synthesized speech and the recording; evaluating results from a signal level evaluation of phone sequences of the text using a phone sequence determined from the TTS component and an SR phone sequence of the recording; and generating a list that includes a ranking of pronunciation issue candidates based on the evaluations. receiving text comprising sentences for a Text-To-Speech component and a recording of the text that is used as a reference for the text; receiving synthesized speech generated by the TTS component using the text as input to the TTS component; evaluating results received by an evaluation performed at a text level by determining a similarity of the synthesized speech to the recording; evaluating results obtained from a Speech Recognition component related to different inputs to the SR component comprising the synthesized speech and the recording; evaluating results from a signal level evaluation of phone sequences of the text using a phone sequence determined from the TTS component and an SR phone sequence of the recording; and generating a list that includes a ranking of pronunciation issue candidates based on the evaluations.
A control system (A-1000) for mixing materials for livestock feed, comprising: - a container (B-1100) which receives the materials; - agitators (B-1300) which mix the materials in the container (B-1100); - a driveline (B-1200) which drives the agitators (B-1300) at an output speed (W out) with an output torque (T out); - a power source (C-1000) which provides an input speed (Win) with an input torque (T in); - a continuously variable transmission (A-1500) that connects the driveline (B-1200) and the power source (C-1000); and - an electronic control unit (A-1100) configured to control the input torque (T in) and to prevent the power source (C-1000) from being overcome by the output torque (T out) required by the agitators (B-1300) and to maintain an increase of the input torque (T in), said control system being characterised in that the electronic control unit (A-1100) is configured to adjust a speed ratio (R in/out) between the input speed (W in) and the output speed (W out) of the continuously variable transmission (A-1500) to provide a linear relationship between the input torque (T in) and the output torque (T out) with a slope, equal to the ratio of an output target speed (W out target) of the agitators (B-1300) and the input speed (W in), when the input torque (T in) is below a control input threshold (T in control), and follow a corrected linear relationship between the input torque (T in) and the output torque (T out) with a corrected slope (M c), based on a maximum input torque (T in max) and a maximum output torque (T out max), smaller than the slope when the input torque (T in) is above the control input threshold (T in control), a value of the input speed (W in) being acquired via a speed sensor (A-1430) and a value of the output torque (T out) is acquired via a torque sensor (A-1410), wherein the value of the input torque (T in) is dependent on the value of the output torque (T out) and the value of the speed ratio (R in/out) that corresponds to the output target speed (W out target). - a container (B-1100) which receives the materials; - agitators (B-1300) which mix the materials in the container (B-1100); - a driveline (B-1200) which drives the agitators (B-1300) at an output speed (W out) with an output torque (T out); - a power source (C-1000) which provides an input speed (Win) with an input torque (T in); - a continuously variable transmission (A-1500) that connects the driveline (B-1200) and the power source (C-1000); and - an electronic control unit (A-1100) configured to control the input torque (T in) and to prevent the power source (C-1000) from being overcome by the output torque (T out) required by the agitators (B-1300) and to maintain an increase of the input torque (T in), said control system being characterised in that
A printable proton battery, comprising: a cathode comprising a printed film of a first material; an anode comprising a printed film of graphene oxide; and an electrolyte disposed between the cathode and the anode, the electrolyte comprising a printed film, the printed film comprising graphene oxide and a proton conductive material, wherein the proton conductive material of the electrolyte comprises sulfonated tetrafluoroethylene-based fluoropolymer-copolymer, or derivatives of sulfonated tetrafluoroethylene-based fluoropolymer-copolymer, or a composition comprising pyridine or pyridine-related structures, or a composition based on a carbon ring with carboxyl groups. a cathode comprising a printed film of a first material; an anode comprising a printed film of graphene oxide; and an electrolyte disposed between the cathode and the anode, the electrolyte comprising a printed film, the printed film comprising graphene oxide and a proton conductive material, wherein the proton conductive material of the electrolyte comprises sulfonated tetrafluoroethylene-based fluoropolymer-copolymer, or derivatives of sulfonated tetrafluoroethylene-based fluoropolymer-copolymer, or a composition comprising pyridine or pyridine-related structures, or a composition based on a carbon ring with carboxyl groups.
Method for operating a wireless device, said wireless device being adapted for communicating with a cellular network by means of a serving base node, being the one of a plurality of base nodes (2.1, 2.2, 2.3) of the cellular network the wireless device is currently camping on, the wireless device being further configured to support extended coverage mode, the method comprising for the wireless device the steps of: - determining an extended coverage support level, relating to the capability of the wireless device for operating in extended coverage mode, - receiving extended coverage maximum support level broadcasted by a plurality of base nodes (2.1, 2.2, 2.3), - selecting one of the plurality of base nodes (2.1, 2.2, 2.3) for registration as serving base node, - providing upon registration with the selected base node its extended coverage support level towards the base node, further comprising the step for the wireless device of: - receiving from the selected base node (2.1, 2.2, 2.3) a set of uplink transport coding schemes, - determining conditions local to the wireless device, - determining the current extended coverage support level for the uplink further based upon said conditions local to the wireless device, - determining at least one uplink transport coding scheme from said received set in dependence of the extended coverage support level for the uplink, - transmitting signals in extended coverage to the selected base node by using said determined uplink transport coding scheme. - determining an extended coverage support level, relating to the capability of the wireless device for operating in extended coverage mode, - receiving extended coverage maximum support level broadcasted by a plurality of base nodes (2.1, 2.2, 2.3), - selecting one of the plurality of base nodes (2.1, 2.2, 2.3) for registration as serving base node, - providing upon registration with the selected base node its extended coverage support level towards the base node, further comprising the step for the wireless device of: - receiving from the selected base node (2.1, 2.2, 2.3) a set of uplink transport coding schemes, - determining conditions local to the wireless device, - determining the current extended coverage support level for the uplink further based upon said conditions local to the wireless device, - determining at least one uplink transport coding scheme from said received set in dependence of the extended coverage support level for the uplink, - transmitting signals in extended coverage to the selected base node by using said determined uplink transport coding scheme.