mhurhangee/ep-ind-claims huggingface dataset:
A process of preparing a cross-linked polysaccharide product comprising hyaluronic acid and dextran, the process comprising the steps of: (a) providing a hyaluronic acid and a dextran; (b) binding the dextran to the hyaluronic acid by ether or ester bonds using a bi- or polyfunctional cross-linking agent; wherein the hyaluronic acid provided in step (a) is a cross-linked hyaluronic acid gel, and the dextran provided in step (a) is a non cross-linked dextran; and wherein step (b) comprises cross-linking the non cross-linked dextran to the hyaluronic acid by ether bonds using a bi- or polyfunctional cross-linking agent. (a) providing a hyaluronic acid and a dextran; (b) binding the dextran to the hyaluronic acid by ether or ester bonds using a bi- or polyfunctional cross-linking agent;
A method for controlling an electrical installation from a remote control station, the electrical installation comprising an electrical coupling network powering one or more electrical loads (7, 8) distributed between so-called priority loads and so-called non-priority loads, a main switch to connect a main power source to the coupling network and an auxiliary switch to connect an auxiliary power source to the coupling network, the control method including: - A step to determine a power consumed by the priority loads and a decision-making step that authorises the implementation of the control method only if the power consumed by the priority loads is less than an available power supplied by the auxiliary power source, - A step to synchronise the auxiliary power source with the main power source including a phase of measuring electric data relative to the main power source and to the auxiliary power source and a verification phase, from the remote control station, to ensure that the measured electric data of the main power source and the auxiliary power source are compatible, and if, during the verification phase, the electric data measured relative to the main power source and to the auxiliary power source are not compatible, the synchronising step further comprises a phase to correct, from the remote control point, the parameters relative to the auxiliary power source, - A step to send an order to close the auxiliary switch from the remote control station, - A step to send an order to open the main switch from the remote control station, - A step to check, from the remote control station, that load(s) (7, 8) is/are powered by the auxiliary power source. - A step to determine a power consumed by the priority loads and a decision-making step that authorises the implementation of the control method only if the power consumed by the priority loads is less than an available power supplied by the auxiliary power source, - A step to synchronise the auxiliary power source with the main power source including a phase of measuring electric data relative to the main power source and to the auxiliary power source and a verification phase, from the remote control station, to ensure that the measured electric data of the main power source and the auxiliary power source are compatible, and if, during the verification phase, the electric data measured relative to the main power source and to the auxiliary power source are not compatible, the synchronising step further comprises a phase to correct, from the remote control point, the parameters relative to the auxiliary power source, - A step to send an order to close the auxiliary switch from the remote control station, - A step to send an order to open the main switch from the remote control station, - A step to check, from the remote control station, that load(s) (7, 8) is/are powered by the auxiliary power source.
An apparatus for detecting a media jam in a printer, the apparatus comprising: a sensor unit configured to be positioned downstream of a media hub of the printer and proximate to a roller of the printer, wherein the sensor unit is configured to generate a sensor signal indicative of a reflectance characteristic associated with the surface of the roller, and wherein the sensor unit comprises: a light emitter configured to project incident light on the surface of the roller; and a light detector configured to detect reflected light from the surface of the roller in response to the incident light; and a processor communicatively coupled to the sensor unit, wherein the processor is configured to: receive, from the sensor unit, the sensor signal indicative of the reflectance characteristic associated with the surface of the roller; compare the reflectance characteristic to a threshold reflectance characteristic associated with the roller; and in response to the comparison, generate an output signal to indicate whether the media jam has occurred, characterized in that the sensor unit is positioned on a tear bar facing a surface of the roller proximate to the tear bar. a sensor unit configured to be positioned downstream of a media hub of the printer and proximate to a roller of the printer, wherein the sensor unit is configured to generate a sensor signal indicative of a reflectance characteristic associated with the surface of the roller, and wherein the sensor unit comprises: a light emitter configured to project incident light on the surface of the roller; and a light detector configured to detect reflected light from the surface of the roller in response to the incident light; and a light emitter configured to project incident light on the surface of the roller; and a light detector configured to detect reflected light from the surface of the roller in response to the incident light; and a processor communicatively coupled to the sensor unit, wherein the processor is configured to: receive, from the sensor unit, the sensor signal indicative of the reflectance characteristic associated with the surface of the roller; compare the reflectance characteristic to a threshold reflectance characteristic associated with the roller; and in response to the comparison, generate an output signal to indicate whether the media jam has occurred, characterized in that the sensor unit is positioned on a tear bar facing a surface of the roller proximate to the tear bar. receive, from the sensor unit, the sensor signal indicative of the reflectance characteristic associated with the surface of the roller; compare the reflectance characteristic to a threshold reflectance characteristic associated with the roller; and in response to the comparison, generate an output signal to indicate whether the media jam has occurred, characterized in that the sensor unit is positioned on a tear bar facing a surface of the roller proximate to the tear bar.
A composite material consisting of amyloid fibrils and elemental gold, whereby • said amyloid fibrils are present in the form of 1D nanoscale building blocks and • said elemental gold is present in the form of 2D nanoscale building blocks and • said composite material shows a golden shining. • said amyloid fibrils are present in the form of 1D nanoscale building blocks and • said elemental gold is present in the form of 2D nanoscale building blocks and • said composite material shows a golden shining.
A method for the diagnosis of Charcot-Marie-Tooth type 2 disease in a subject; said method comprising the steps of: 1) determining the expression level of one or more biomarkers selected from the list comprising: Profilin 2 and guanidinoacetate methyltransferase (GAMT), in a test sample obtained from said subject; 2) comparing said expression level of said one or more biomarkers as determined in step 1) with the expression level of said one or more biomarkers in a reference sample; 3) wherein a reduced expression level of said one or more biomarkers in said test sample compared to said reference sample is indicative of said subject suffering from Charcot-Marie-Tooth type 2 disease. 1) determining the expression level of one or more biomarkers selected from the list comprising: Profilin 2 and guanidinoacetate methyltransferase (GAMT), in a test sample obtained from said subject; 2) comparing said expression level of said one or more biomarkers as determined in step 1) with the expression level of said one or more biomarkers in a reference sample; 3) wherein a reduced expression level of said one or more biomarkers in said test sample compared to said reference sample is indicative of said subject suffering from Charcot-Marie-Tooth type 2 disease.
A milling machine, comprising a milling spindle and a workpiece holder which is mounted so as to move with respect to the milling spindle in at least 2, in particular 3, spatial directions, comprising a workpiece which is held in a clamped manner on the workpiece holder, comprising a sensor, relative to which the workpiece can be brought into contact and relative to which workpiece the sensor can be moved to sense the workpiece, characterised in that the sensor is designed as a sensing probe, having a deflection and detection of a deflection of its sensing element in at least 1 spatial direction, in particular in at least 2 spatial directions, and that the workpiece comprises a recess which the sensing element enters and detects its position, and that from every workpiece a dental restoration part with a recess, such as an abutment or a superstructure with screw channel, can be produced.
A fingerboard for at least partial attachment to the neck of a stringed musical instrument, such as a violin or a guitar, wherein said fingerboard is made in a sandwich construction with a core material or with a hollow profile.
A channel transmission method, comprising: when operating in a non-scheduling transmission mode, scrambling, by a terminal device, to-be-sent data by using a first radio network temporary identifier RNTI, wherein a correspondence exists between the first RNTI and a specified frequency domain resource index, wherein the specified frequency domain resource index corresponds to a frequency domain resource allocated to the terminal for uplink transmission in the non-scheduling transmission mode; and determining, by the terminal device, the first RNTI based on the specified frequency domain resource index; and when operating in a scheduling transmission mode, scrambling, by the terminal device, the to-be-sent data by using a second RNTI, wherein the second RNTI is different from the first RNTI. when operating in a non-scheduling transmission mode, scrambling, by a terminal device, to-be-sent data by using a first radio network temporary identifier RNTI, wherein a correspondence exists between the first RNTI and a specified frequency domain resource index, wherein the specified frequency domain resource index corresponds to a frequency domain resource allocated to the terminal for uplink transmission in the non-scheduling transmission mode; and determining, by the terminal device, the first RNTI based on the specified frequency domain resource index; and when operating in a scheduling transmission mode, scrambling, by the terminal device, the to-be-sent data by using a second RNTI, wherein the second RNTI is different from the first RNTI.
A heat exchanger (11, 11a) comprising: a header; a plurality of flat tubes arranged in line along a longitudinal direction of the header, and connected to the header; a refrigerant pipe (24, 25, 20a to 20d) connected to an introduction space (97, 51c to 54c) in the header; and a nozzle part through which a refrigerant is fed from the introduction space to a supply space (98, 51b to 54b) positioned adjacent to the introduction space in the longitudinal direction of the header, in the case of functioning as a evaporator of the refrigerant, wherein the nozzle part is located on a side closer to the flat tubes than to the refrigerant pipe, and characterised in that the width, in the longitudinal direction of the header, of a zone in the introduction space on a side closer to the flat tubes where the nozzle part is located, is smaller than the width, in the longitudinal direction of the header, of a zone in the introduction space on a side where the refrigerant pipe is connected. a header; a plurality of flat tubes arranged in line along a longitudinal direction of the header, and connected to the header; a refrigerant pipe (24, 25, 20a to 20d) connected to an introduction space (97, 51c to 54c) in the header; and a nozzle part through which a refrigerant is fed from the introduction space to a supply space (98, 51b to 54b) positioned adjacent to the introduction space in the longitudinal direction of the header, in the case of functioning as a evaporator of the refrigerant, wherein the nozzle part is located on a side closer to the flat tubes than to the refrigerant pipe, and characterised in that the width, in the longitudinal direction of the header, of a zone in the introduction space on a side closer to the flat tubes where the nozzle part is located, is smaller than the width, in the longitudinal direction of the header, of a zone in the introduction space on a side where the refrigerant pipe is connected.
A method for determining a capacitor temperature (T C) of a link capacitor of a link converter, which contains at least one n-phase inverter wherein the link capacitor is modeled as a series interconnection of an equivalent capacitance and an equivalent series resistance, wherein a modeled capacitor current (iCm) flows across the equivalent series resistance and characterized in that that a modeled capacitor power loss (P C), from which the capacitor temperature (T C) is determined by means of a specified temperature model, is calculated from the modeled capacitor current (i Cm) and the value of the equivalent series resistance by means of a first relationship of the form P C = f ( i Cm, ESR).
Industrial truck having a load receiving apparatus, in particular a load fork, which can be raised and lowered by means of a lifting apparatus, and having a control apparatus for controlling the lifting apparatus, wherein the control apparatus is operatively connected to at least one sensor for sensing at least one uppermost layer of a load in at least one sensing region, wherein the sensor is configured to measure distances from a measurement position provided above the sensing region to points on the top sides of all uppermost layers of the load in the sensing region, characterized in that the control apparatus is set up to assign height coordinates to the individual points on the basis of the measured distances and to calculate an average height level of the load therefrom and to control the lifting apparatus in such a manner that the average height level of the load is kept continuously at a predefined levelling height.
A built-in cooking appliance with a main body that includes a casing having an opening defined therein at an upper portion thereof, a heating source accommodated in the casing, and a top plate unit (3; 12; 20; 27) fixed to the casing so as to close the opening in the casing, the main body being adapted to be inserted into an opening defined in a kitchen counter (9; 16), on which a lower surface of the top plate unit is placed, the top plate unit comprising: a top plate on which an object to be heated is placed; an underframe (4; 13; 21; 26) for holding the top plate placed on an upper surface thereof, the underframe (4; 13; 21; 26) having an outer peripheral edge facing an upper surface of the kitchen counter (9; 16); and a decorative panel (6; 14; 22) for covering an upper portion of an outer peripheral edge of the top plate; wherein the decorative panel (6; 14; 22) has an inwardly bent portion that has been formed by bending an outer peripheral edge portion of the decorative panel (6; 14; 22) inwardly toward a lower surface of the underframe (4; 13; 21; 26); to hold the outer peripheral edge of the underframe (4; 13; 21; 26); the built-in cooking appliance being characterised in that at least a portion of the inwardly bent portion is sandwiched between the outer peripheral edge of the underframe (4; 13; 21; 26) and the upper surface of the kitchen counter (9; 16) such that part or all of a total weight of the main body is applied to the at least the portion of the inwardly bent portion that contacts with the outer peripheral edge of the underframe (4; 13; 21; 26) and the upper surface of the kitchen counter (9; 16) and that is sandwiched therebetween. a top plate on which an object to be heated is placed; an underframe (4; 13; 21; 26) for holding the top plate placed on an upper surface thereof, the underframe (4; 13; 21; 26) having an outer peripheral edge facing an upper surface of the kitchen counter (9; 16); and a decorative panel (6; 14; 22) for covering an upper portion of an outer peripheral edge of the top plate; wherein the decorative panel (6; 14; 22) has an inwardly bent portion that has been formed by bending an outer peripheral edge portion of the decorative panel (6; 14; 22) inwardly toward a lower surface of the underframe (4; 13; 21; 26); to hold the outer peripheral edge of the underframe (4; 13; 21; 26); the built-in cooking appliance being characterised in that at least a portion of the inwardly bent portion is sandwiched between the outer peripheral edge of the underframe (4; 13; 21; 26) and the upper surface of the kitchen counter (9; 16) such that part or all of a total weight of the main body is applied to the at least the portion of the inwardly bent portion that contacts with the outer peripheral edge of the underframe (4; 13; 21; 26) and the upper surface of the kitchen counter (9; 16) and that is sandwiched therebetween.
An inertial sensor comprising a frame (2.1, 2.2) to which at least two seismic bodies (3.1, 3.2) are connected by resilient means (8.11, 8.12, 8.21, 8.22) so as to be movable in a suspension plane, and transducers (11.1, 11.2, 12.1, 12.2, 13.1, 13.2) to keep the seismic bodies vibrating and to determine a relative movement of the seismic bodies relative to one another, the seismic bodies having a single shape and a single mass, the seismic bodies comprising interlocking parts such that the seismic bodies are nested inside one another while being movable in the suspension plane relative to the other of the seismic bodies, with the seismic bodies having centres of gravity that coincide with one another.
A method for generating output filters to a plurality of loudspeakers at respective positions for playback of a plurality of different input signals in respective spatially different sound zones by means of a processor system, the method comprising - 1) receiving (R SI) spatial information, indicative of acoustic sound transmission between the plurality of loudspeaker positions and the sound zones, - 2) receiving (R_SC) input indicative of signal characteristics of the input signals, - 3) computing (C_CM) spatio-temporal correlation matrices in response to the spatial information, in response to the signal characteristics of the input signals, and in response to desired sound pressures in the plurality of sound zones, - 4) computing (C_EV) a joint eigenvalue decomposition of the spatial correlation matrices, to arrive at eigenvectors accordingly, - 5) computing (C_VSF) variable span filters formed from a linear combination of the eigenvectors in response to a desired trade-off between acoustic contrast and acoustic errors in the sound zones, and - 6) generating (G OF) one output filter for each of the plurality of loudspeakers, for each of the plurality of input signals, in accordance with the variable span filters. - 1) receiving (R SI) spatial information, indicative of acoustic sound transmission between the plurality of loudspeaker positions and the sound zones, - 2) receiving (R_SC) input indicative of signal characteristics of the input signals, - 3) computing (C_CM) spatio-temporal correlation matrices in response to the spatial information, in response to the signal characteristics of the input signals, and in response to desired sound pressures in the plurality of sound zones, - 4) computing (C_EV) a joint eigenvalue decomposition of the spatial correlation matrices, to arrive at eigenvectors accordingly, - 5) computing (C_VSF) variable span filters formed from a linear combination of the eigenvectors in response to a desired trade-off between acoustic contrast and acoustic errors in the sound zones, and - 6) generating (G OF) one output filter for each of the plurality of loudspeakers, for each of the plurality of input signals, in accordance with the variable span filters.
A fuel system for an internal combustion engine having an engine block, at least one cylinder associated with the engine, at least one piston mounted for movement within the cylinder, a shaft driven by the at least one piston, a flywheel mounted to the shaft, including the integration of the components required to operate the fuel system into two groups, which comprises: a throttle body, the throttle body having a first plurality of parts associated with it; and an ignition module, the ignition module having a second plurality of parts associated with it, the ignition module being operatively connected to the throttle body for engine operation, wherein the first plurality of parts includes an electronic control unit mounted to the throttle body, the electronic control module being operatively connected to the ignition module, wherein the fuel system is configured to: determine a speed of the engine; test whether the speed of the engine is greater than a maximum speed; test whether the speed of the engine is greater than an upper limit speed, the upper limit speed being greater than the maximum speed; increase a fuel flow to the engine if the speed of the engine is greater than the maximum speed and less than the upper limit speed; slow the speed of the engine by shutting off the fuel flow to the engine and stop the ignition timing to prevent the speed of the engine from exceeding the upper limit speed if the speed of the engine is greater than the upper limit speed; and make no change to the fuel flow in response to the testing steps (218, 220) if the speed of the engine is less than the maximum speed (216, 218). determine a speed of the engine; test whether the speed of the engine is greater than a maximum speed; test whether the speed of the engine is greater than an upper limit speed, the upper limit speed being greater than the maximum speed; increase a fuel flow to the engine if the speed of the engine is greater than the maximum speed and less than the upper limit speed; slow the speed of the engine by shutting off the fuel flow to the engine and stop the ignition timing to prevent the speed of the engine from exceeding the upper limit speed if the speed of the engine is greater than the upper limit speed; and make no change to the fuel flow in response to the testing steps (218, 220) if the speed of the engine is less than the maximum speed (216, 218).
A process for making a freeze-dried pharmaceutical formulation comprising the steps of (i) preparing an aqueous solution comprising anidulafungin, a solubilizing agent, a stabilizing agent, a bulking agent, a buffer, and (ii) freeze drying the solution of step (i), wherein the anidulafungin is used in the form of a powder which does not contain particles having a size of more than 400 μm.