mhurhangee/ep-ind-claims huggingface dataset:
A radio network entity for improving filtering performance in a time division duplexing, TDD, radio communication system, comprising: - a first filter, configured to perform a first type of filtering for a signal to be transmitted to, or received from a device in the radio communication system through a radio interface, with a common filtering requirement for transmitting and receiving fulfilled; - a second filter, configured to perform a second type of filtering on a transmitting path for the signal to be transmitted to the device, with additional filtering requirement for transmitting besides the common filtering requirement fulfilled; and - a third filter, configured to perform a third type of filtering on a receiving path for the signal received from the device, with additional filtering requirement for receiving besides the common filtering requirement fulfilled, wherein the frequency attenuation provided by the second filter is different from that of the third filter, wherein the second filter is configured to provide further attenuation, at a first frequency, needed for the transmitting path only and the third filter is configured to provide further attenuation, at a second frequency, needed for the receiving path only. - a first filter, configured to perform a first type of filtering for a signal to be transmitted to, or received from a device in the radio communication system through a radio interface, with a common filtering requirement for transmitting and receiving fulfilled; - a second filter, configured to perform a second type of filtering on a transmitting path for the signal to be transmitted to the device, with additional filtering requirement for transmitting besides the common filtering requirement fulfilled; and - a third filter, configured to perform a third type of filtering on a receiving path for the signal received from the device, with additional filtering requirement for receiving besides the common filtering requirement fulfilled, wherein the frequency attenuation provided by the second filter is different from that of the third filter, wherein the second filter is configured to provide further attenuation, at a first frequency, needed for the transmitting path only and the third filter is configured to provide further attenuation, at a second frequency, needed for the receiving path only.
A brake hydraulic pressure control device of a saddle-type vehicle, configured to execute anti-lock brake control of decreasing and increasing a pressure of a brake fluid in a wheel cylinder in correspondence to a slip state of a wheel while an input unit of a brake is operated, the brake hydraulic pressure control device comprising: a master cylinder-side pressure acquisition unit configured to acquire a pressure of a brake fluid in a master cylinder; an input gradient acquisition unit configured to acquire an input gradient, which is an increment per unit time of an amount of operation of the input unit; an open time determination unit configured to determine a time for one opening of a hydraulic pressure adjusting valve configured to repeatedly open and close a main flow path, through which a brake fluid to be supplied from the master cylinder to the wheel cylinder is to flow, while a pressure of the brake fluid in the wheel cylinder is increased after the pressure of the brake fluid in the wheel cylinder is decreased during the anti-lock brake control; and an execution unit configured to open and close the hydraulic pressure adjusting valve, wherein the open time determination unit is configured to determine the time for one opening of the hydraulic pressure adjusting valve, in correspondence to the pressure of the brake fluid in the master cylinder and the input gradient of the input unit. a master cylinder-side pressure acquisition unit configured to acquire a pressure of a brake fluid in a master cylinder; an input gradient acquisition unit configured to acquire an input gradient, which is an increment per unit time of an amount of operation of the input unit; an open time determination unit configured to determine a time for one opening of a hydraulic pressure adjusting valve configured to repeatedly open and close a main flow path, through which a brake fluid to be supplied from the master cylinder to the wheel cylinder is to flow, while a pressure of the brake fluid in the wheel cylinder is increased after the pressure of the brake fluid in the wheel cylinder is decreased during the anti-lock brake control; and an execution unit configured to open and close the hydraulic pressure adjusting valve, wherein the open time determination unit is configured to determine the time for one opening of the hydraulic pressure adjusting valve, in correspondence to the pressure of the brake fluid in the master cylinder and the input gradient of the input unit.
Grease composition for use in resin lubrication wherein at least one amine salt of an unsaturated or saturated fatty acid is incorporated in a grease base material which includes a base oil and a thickener, characterised in that the unsaturated or saturated fatty acid amine salt is an unsaturated or saturated fatty acid amine salt of the following general formula. RCOO - R'NH 3 + wherein either (i) R is an unsaturated hydrocarbon group having from 15 to 21 carbon atoms, and R' is a saturated or unsaturated linear or branched hydrocarbon group having from 8 to 22 carbon atoms; or (ii) R is a linear saturated hydrocarbon group having from 5 to 21 carbon atoms, and R' is an unsaturated hydrocarbon group having from 16 to 18 carbon atoms; wherein the total amount of the unsaturated or saturated fatty acid amine salt is in the range of from 1 to 5 % by mass relative to the total amount of the grease composition.
Kitchen hood comprising a device (20; 30) for arresting flames, the device (20; 30) comprising at least two substantially parallel spaced apart sheets (21, 22; 31, 32; 41, 42, 43, 44), wherein the sheets (21, 22; 31, 32; 41, 42, 43, 44) are provided with perforated zones (27, 28; 33, 34; 45), wherein at least a channel is formed by a perforated zone (27; 33; 45) of the sheet (21; 31; 41, 42, 43, 44) upstream of the gas flow, the space between the at least two sheets (21, 22; 31, 32; 41, 42, 43, 44) and a perforated zone (28; 34; 45) of the sheet (22; 32; 41, 42, 43, 44) downstream of the gas flow, wherein the channel comprises a section (29; 35) which has a reverse direction relative to the gas flow, characterized in that - the kitchen hood comprising a channel, a fan arranged in the channel for discharging gases and wherein the device (20; 30) for arresting flames is arranged in the channel; in that - the sheets (21, 22; 31, 32; 41, 42, 43, 44) are fireproof; and in that - the holes of the perforated zones have an area of less than 2 mm 2. - the kitchen hood comprising a channel, a fan arranged in the channel for discharging gases and wherein the device (20; 30) for arresting flames is arranged in the channel; in that - the sheets (21, 22; 31, 32; 41, 42, 43, 44) are fireproof; and in that - the holes of the perforated zones have an area of less than 2 mm 2.
A method of forming a dental implant made of a titanium or titanium alloy, the method comprising the acts of: etching at least a threaded bottom portion of the implant to remove a native oxide layer; acid etching the threaded bottom portion to form a roughened surface having a uniform array of microscale irregularities having peak-to-valley heights not greater than about 20 microns; and depositing discrete hydroxyapatite nanocrystals on the roughened surface by exposing the roughened surface to a solution comprising 2-methoxyethanol solvent and the hydroxyapatite nanocrystals. etching at least a threaded bottom portion of the implant to remove a native oxide layer; acid etching the threaded bottom portion to form a roughened surface having a uniform array of microscale irregularities having peak-to-valley heights not greater than about 20 microns; and depositing discrete hydroxyapatite nanocrystals on the roughened surface by exposing the roughened surface to a solution comprising 2-methoxyethanol solvent and the hydroxyapatite nanocrystals.
A first direct current power line communication apparatus, to which a first direct current voltage is supplied via a first direct current voltage line, the first direct current power line communication apparatus being configured to transmit a first signal to a second direct current power communication apparatus, to which a second direct current voltage different from the first direct current voltage is supplied via a second direct current voltage line (13a, 14a, 16a), the first direct current power line communication apparatus comprising: a transmission section that is connected to the first direct current voltage line and transmits the signal to the second direct current power line communication apparatus via the first direct current voltage line and the second direct current voltage line (13a, 14a, 16a); a control section that is connected to the transmission section and controls the transmission section; and a voltage detection section that is connected to the control section and the first direct current voltage line, and detects the first direct current voltage and reports said first direct current voltage to the control section, wherein the control section transmits information on the first direct current voltage, the information being included in the first signal, to the second direct current power line communication apparatus via the transmission section. a transmission section that is connected to the first direct current voltage line and transmits the signal to the second direct current power line communication apparatus via the first direct current voltage line and the second direct current voltage line (13a, 14a, 16a); a control section that is connected to the transmission section and controls the transmission section; and a voltage detection section that is connected to the control section and the first direct current voltage line, and detects the first direct current voltage and reports said first direct current voltage to the control section, wherein the control section transmits information on the first direct current voltage, the information being included in the first signal, to the second direct current power line communication apparatus via the transmission section.
Flow measurement system for determining a flow parameter of a fluid, comprising: a flow sensor having a sensor chip, the sensor chip having a first thermal membrane sensor element that is configured to determine the flow parameter of the fluid in a first measurement range or to determine a fluid temperature, and the first thermal membrane sensor element comprising two spaced-apart thermoelement junctions (8a, 8b) and a heating element arranged between the thermoelement junctions; and the sensor chip being implemented to be circumflowed by the fluid during operation of the flow measurement system as a self-supporting sensor finger, and the sensor chip having a second thermal membrane sensor element that is configured to determine the flow parameter of the fluid in a second measurement range or to determine a fluid temperature of the fluid, the second thermal membrane sensor element comprising two spaced-apart thermoelement junctions (8a', 8b') and a heating element arranged between the thermoelement junctions, and wherein a distance D1 of the two thermoelement junctions (8a, 8b) of the first thermal membrane sensor element to the heating element arranged therebetween differs from a distance D2 of the two thermoelement junctions (8a', 8b') of the second thermal membrane sensor element to the heating element arranged therebetween; and a control means for the sensor chip that is implemented to control the thermal membrane sensor elements (12, 12') such that, in a first state, the first thermal membrane sensor element determines the flow parameter in the first measurement range and the second thermal membrane sensor element determines the fluid temperature, and that, in a second state, the first thermal membrane sensor element determines the fluid temperature and the second thermal membrane sensor element determines the flow parameter in the second measurement range. a flow sensor having a sensor chip, the sensor chip having a first thermal membrane sensor element that is configured to determine the flow parameter of the fluid in a first measurement range or to determine a fluid temperature, and the first thermal membrane sensor element comprising two spaced-apart thermoelement junctions (8a, 8b) and a heating element arranged between the thermoelement junctions; and the sensor chip being implemented to be circumflowed by the fluid during operation of the flow measurement system as a self-supporting sensor finger, and the sensor chip having a second thermal membrane sensor element that is configured to determine the flow parameter of the fluid in a second measurement range or to determine a fluid temperature of the fluid, the second thermal membrane sensor element comprising two spaced-apart thermoelement junctions (8a', 8b') and a heating element arranged between the thermoelement junctions, and
Aircraft engine nacelle comprising an air inlet comprising a lip, a tubular air inlet piece and an ice protection system, said ice protection system comprising an anti-icing means wholly or partly covering the lip and a de-icing means covering the tubular air inlet piece and comprising a controller configured to acquire a current temperature value, characterized in that: - the anti-icing means is DC powered by a first electrical energy source and the de-icing means is powered by second electrical energy source, - the current temperature value acquired by the controller is the current value of the total air temperature (TATc), and - the controller is configured to: ∘ control the second electrical energy source as a function of the current total air temperature value (TATc), and ∘ control the activation of the first electrical energy source, prior to the activation of the second electrical energy source as a function of the current total air temperature value (TATc). - the anti-icing means is DC powered by a first electrical energy source and the de-icing means is powered by second electrical energy source, - the current temperature value acquired by the controller is the current value of the total air temperature (TATc), and - the controller is configured to: ∘ control the second electrical energy source as a function of the current total air temperature value (TATc), and ∘ control the activation of the first electrical energy source, prior to the activation of the second electrical energy source as a function of the current total air temperature value (TATc). ∘ control the second electrical energy source as a function of the current total air temperature value (TATc), and ∘ control the activation of the first electrical energy source, prior to the activation of the second electrical energy source as a function of the current total air temperature value (TATc).
An isolated polypeptide having beta-xylosidase activity, selected from the group consisting of: (a) a polypeptide having at least 80% sequence identity to the mature polypeptide of SEQ ID NO: 10; (b) a polypeptide encoded by a polynucleotide having at least 80% sequence identity to the mature polypeptide coding sequence of SEQ ID NO: 9 or the cDNA sequence thereof; (c) a fragment of the polypeptide of (a) or (b) that has beta-xylosidase activity, and wherein the polypeptide has at least 90% of the beta-xylosidase activity of the mature polypeptide of SEQ ID NO: 10. (a) a polypeptide having at least 80% sequence identity to the mature polypeptide of SEQ ID NO: 10; (b) a polypeptide encoded by a polynucleotide having at least 80% sequence identity to the mature polypeptide coding sequence of SEQ ID NO: 9 or the cDNA sequence thereof; (c) a fragment of the polypeptide of (a) or (b) that has beta-xylosidase activity, and wherein the polypeptide has at least 90% of the beta-xylosidase activity of the mature polypeptide of SEQ ID NO: 10.
A chair comprising a reused seat shell and a chair frame connected to the seat shell, wherein the chair frame comprises a mounting plate and four chair legs (131, 132, 133, 134), wherein the mounting plate is connected to the chair legs by first connecting elements, and wherein the mounting plate is connected to the seat shell by second connecting elements, wherein the center of gravity of the chair is located within a range defined by the mounting plate and the chair legs; wherein the mounting plate is formed as a substantially cuboidal shell, the first connecting elements comprising first holes (241, 242, 243, 244) in the bottom of the shell, wherein the first holes form corners of a quadrilateral, a rectangle or a square, and wherein the center of the quadrilateral, the rectangle or the square is located on a first central axis of the bottom and is spaced from a second central axis extending perpendicular to the first central axis of the bottom, and wherein the center of gravity of the chair is located on a first line extending through the center of the quadrilateral running perpendicular to the line through the plane defined by the bottom. wherein the chair frame comprises a mounting plate and four chair legs (131, 132, 133, 134), wherein the mounting plate is connected to the chair legs by first connecting elements, and wherein the mounting plate is connected to the seat shell by second connecting elements, wherein the center of gravity of the chair is located within a range defined by the mounting plate and the chair legs; wherein the mounting plate is formed as a substantially cuboidal shell, the first connecting elements comprising first holes (241, 242, 243, 244) in the bottom of the shell, wherein the first holes form corners of a quadrilateral, a rectangle or a square, and wherein the center of the quadrilateral, the rectangle or the square is located on a first central axis of the bottom and is spaced from a second central axis extending perpendicular to the first central axis of the bottom, and wherein the center of gravity of the chair is located on a first line extending through the center of the quadrilateral running perpendicular to the line through the plane defined by the bottom.
A method for intermittently perforating a moving target web, comprising: rotating a knife roll having at least one knife member to provide an operative knife-member speed; rotating an anvil roll having at least one anvil member to provide an operative anvil-member speed; positioning the knife roll and anvil roll to provide an operative nip region therebetween; moving a substantially continuous target web at a web speed through the nip region; coordinating a rotational positioning of the knife member with a rotational positioning of its cooperating anvil member to provide an operative, cutting engagement between the knife member and its cooperating anvil member to thereby cut the moving web at cut locations which are intermittently spaced along a machine-direction of the web; providing a speed difference between the moving knife-member and its co-operating moving anvil-member in the nip region. rotating a knife roll having at least one knife member to provide an operative knife-member speed; rotating an anvil roll having at least one anvil member to provide an operative anvil-member speed; positioning the knife roll and anvil roll to provide an operative nip region therebetween; moving a substantially continuous target web at a web speed through the nip region; coordinating a rotational positioning of the knife member with a rotational positioning of its cooperating anvil member to provide an operative, cutting engagement between the knife member and its cooperating anvil member to thereby cut the moving web at cut locations which are intermittently spaced along a machine-direction of the web; providing a speed difference between the moving knife-member and its co-operating moving anvil-member in the nip region.
A method for obtaining a tread portion that during its use assumes a porous surface with a 75 to 800 μm 2 pore area; said method comprising a preparation phase of a rubber compound, wherein: - in a first mixing step a polymer base selected from SBR, BR, NR and mixtures thereof, 5 to 20 phr of recycled rubber having 75 to 800 μm in size, and silica are mixed together; and - in a second mixing step a curing system is added and mixed to the compound from the first mixing step; said method being characterized by the fact that said recycled rubber is treated beforehand cryogenically and is added to said first mixing step without being beforehand pre-mixed with any polymer base. - in a first mixing step a polymer base selected from SBR, BR, NR and mixtures thereof, 5 to 20 phr of recycled rubber having 75 to 800 μm in size, and silica are mixed together; and - in a second mixing step a curing system is added and mixed to the compound from the first mixing step;
A system comprising: an imaging device for acquiring image data of anatomy of a subject; a display communicably coupled to the imaging device; a mobile device communicating with the imaging device and the display over a dedicated communication channel; and a database communicably coupled to the imaging device and the mobile device, wherein the database stores one or more pre-operative images, wherein the mobile device comprises one or more applications, wherein an application of the one or more applications is configured to: receive the image data from at least one of the imaging device and the display; perform tomographic image reconstruction using the image data to generate a tomographic image; receive a pre-operative image of the one or more pre-operative images; and present the tomographic image and the received pre-operative image to a user. an imaging device for acquiring image data of anatomy of a subject; a display communicably coupled to the imaging device; a mobile device communicating with the imaging device and the display over a dedicated communication channel; and a database communicably coupled to the imaging device and the mobile device, wherein the database stores one or more pre-operative images, wherein the mobile device comprises one or more applications, wherein an application of the one or more applications is configured to: receive the image data from at least one of the imaging device and the display; perform tomographic image reconstruction using the image data to generate a tomographic image; receive a pre-operative image of the one or more pre-operative images; and present the tomographic image and the received pre-operative image to a user. receive the image data from at least one of the imaging device and the display; perform tomographic image reconstruction using the image data to generate a tomographic image; receive a pre-operative image of the one or more pre-operative images; and present the tomographic image and the received pre-operative image to a user.