mhurhangee/ep-ind-claims huggingface dataset:
A garment for being placed in contact with a wearer's limb, comprising: (a) a base layer having a base level resistance to stretching; and (b) an activation element coupled to said base layer, said activation element comprising a lattice pattern and having a resistance to stretching greater than the base level resistance to stretching, the garment is characterized in that, said activation element is configured to be placed in contact with the back of the wearer's thigh, not to extend above the upper most extent of the gluteus maximus, and not to extend below the knee, and wherein the garment is configured to be able to cause increased activity in a first muscle in the wearer's limb during a locomotion movement via an increase in the resistance to contraction of the first muscle provided by the garment during locomotion of the wearer. (a) a base layer having a base level resistance to stretching; and (b) an activation element coupled to said base layer, said activation element comprising a lattice pattern and having a resistance to stretching greater than the base level resistance to stretching,
An LED lighting device and speaker, comprising: - an LED lighting unit configured to emit light; - a speaker configured to play audio signals; - an outer casing configured to hold the LED lighting unit and speaker; - a sound guiding tube, running through the outer casing, configured to guide sound and dissipate heat; and - a power supply module configured to supply power to the LED lighting unit and speaker; wherein the LED lighting unit and the speaker are fixed on a top surface of the outer casing by screws and the power supply module includes a power supply, a base with a hollow interior and a light socket. - an LED lighting unit configured to emit light; - a speaker configured to play audio signals; - an outer casing configured to hold the LED lighting unit and speaker; - a sound guiding tube, running through the outer casing, configured to guide sound and dissipate heat; and - a power supply module configured to supply power to the LED lighting unit and speaker;
A pharmaceutical composition for use in treating or preventing cancer, said composition comprising at least one peptide selected from the group consisting of following (i) to (iv), or a polynucleotide encoding the peptide: (i) a peptide of less than 15 amino acids having cytotoxic T cell inducibility, wherein said peptide comprises the amino acid sequence of SEQ ID NO: 288; (ii) a peptide of less than 15 amino acids having cytotoxic T cell inducibility, wherein said peptide comprises an amino acid sequence of SEQ ID NO: 288, in which 1 or 2 amino acids are substituted, wherein said peptide induces a cytotoxic T cell specific to an HLA-A2 positive cell expressing URLC10; (iii) the peptide of (ii), wherein the second amino acid from the N-terminus of the amino acid sequence of SEQ ID NO: 288 is substituted with methionine; and (iv) the peptide of (ii) or (iii), wherein the C-terminal amino acid of the amino acid sequence of SEQ ID NO: 288 is substituted with valine. (i) a peptide of less than 15 amino acids having cytotoxic T cell inducibility, wherein said peptide comprises the amino acid sequence of SEQ ID NO: 288; (ii) a peptide of less than 15 amino acids having cytotoxic T cell inducibility, wherein said peptide comprises an amino acid sequence of SEQ ID NO: 288, in which 1 or 2 amino acids are substituted, wherein said peptide induces a cytotoxic T cell specific to an HLA-A2 positive cell expressing URLC10; (iii) the peptide of (ii), wherein the second amino acid from the N-terminus of the amino acid sequence of SEQ ID NO: 288 is substituted with methionine; and (iv) the peptide of (ii) or (iii), wherein the C-terminal amino acid of the amino acid sequence of SEQ ID NO: 288 is substituted with valine.
Method for printing a print image onto at least one curved region of the surface of an object in an inkjet process wherein a screen of ink drops is applied to the region to create print dots, wherein the screen is calculated by a computer, and wherein the ink drops are created and applied to the region by a print head by means of nozzles of a nozzle surface of the print head, comprising the following steps a) to g) carried out on the computer and the following step h) carried out by the print head: a) providing data representing the print image, b) providing or calculating data representing the region, c) providing or calculating path data on paths on which the print head or the object moves, d) calculating the application locations of the ink drops using the data from steps b) and c), e) calculating data based on a tiling of the region using the data from step d), f) calibrating the tone values of the print image using the data from step e), g) screening (G, G') the print image using the data from step f), and h) printing the screened image onto the region, characterized in that step f) comprises using a calibration function dependent on the screen values and on the surface area of the tiles. a) providing data representing the print image, b) providing or calculating data representing the region, c) providing or calculating path data on paths on which the print head or the object moves, d) calculating the application locations of the ink drops using the data from steps b) and c), e) calculating data based on a tiling of the region using the data from step d), f) calibrating the tone values of the print image using the data from step e), g) screening (G, G') the print image using the data from step f), and h) printing the screened image onto the region,
A method for regulating a gas burner, wherein the gas burner has a combustion air supply fan, the speed of which can be variably set, with the steps of: - operating the fan and detecting a fan speed (n VBL); - changing the fan speed; - measuring an ionization voltage (UION) which correlates to an ionization current in a flame area of the gas burner; - finding a minimum of a gradient of the measured ionization voltage with respect to the current change in fan speed; - determining an operating point by measuring the current ionization voltage and storing it as an operating point; - during the operation of the burner, continuously measuring the current ionization voltage; - determining a deviation between the currently measured ionization voltage and the operating point; - checking whether the deviation (delta U ION) lies within a predefined limit (U Y) and performing a case discrimination: + if the deviation lies within the predefined limit (U Y), continuing the continuous measurement of the current ionization voltage; + if the deviation does not lie within the predefined limit (U Y), repeating the method from the above change in fan speed. - operating the fan and detecting a fan speed (n VBL); - changing the fan speed; - measuring an ionization voltage (UION) which correlates to an ionization current in a flame area of the gas burner; - finding a minimum of a gradient of the measured ionization voltage with respect to the current change in fan speed; - determining an operating point by measuring the current ionization voltage and storing it as an operating point; - during the operation of the burner, continuously measuring the current ionization voltage; - determining a deviation between the currently measured ionization voltage and the operating point; - checking whether the deviation (delta U ION) lies within a predefined limit (U Y) and performing a case discrimination: + if the deviation lies within the predefined limit (U Y), continuing the continuous measurement of the current ionization voltage; + if the deviation does not lie within the predefined limit (U Y), repeating the method from the above change in fan speed. + if the deviation lies within the predefined limit (U Y), continuing the continuous measurement of the current ionization voltage; + if the deviation does not lie within the predefined limit (U Y), repeating the method from the above change in fan speed.
Control cabinet for a textile machine, for receiving electrical components, comprising an opening for inlet air, an opening for outlet air, a fan for the forced supply of air through the opening for inlet air into the control cabinet, and a filter sieve for cleaning the inlet air, characterised in that the filter sieve is designed as a shell surface of a circular cylindrical arrangement, the opening for inlet air is arranged in the area of the top surface of this circular cylindrical arrangement, and that the fan in the area of the opening for inlet air is arranged and designed in such a way that it forces air from the interior of the circular cylindrical arrangement through the filter sieve into the control cabinet, and that the base surface of the circular cylindrical arrangement is at least partly open.
Loop for heat-transfer liquid for a vehicle, the loop for heat-transfer liquid comprising at least a first network and a second network, the first network comprising at least one means for inducing circulation of the heat-transfer liquid, and a first heat exchanger configured to be thermally coupled to a first element of an electric drive train of the vehicle, the second network comprising at least one means for inducing movement of the heat-transfer liquid, a second heat exchanger configured to be thermally coupled to a second element of the electric drive train of the vehicle, and a radiator arranged to be traversed by an outside air flow external to a cabin of the vehicle, the radiator comprising at least one input, a first cooling zone of the heat-transfer liquid supplying a first output of the radiator, and a second cooling zone for the heat-transfer liquid supplying a second output of the radiator, the first output being connected to the first heat exchanger, and the second output being connected to the second heat exchanger, in which loop the first network and the second network are connected by a second connection duct which extends from a three-way valve, arranged in the first network, to a fourth connection point contained in the second network between the input of the radiator and the second heat exchanger.
A method of calibrating the jetting profile of a jetted fluid material for a jetting system, the jetting system including a jetting dispenser and a control component operatively coupled to the jetting dispenser, the jetting dispenser including a valve seat, a valve closure structure, and a piezoelectric actuation mechanism having a piezoelectric actuator, the method characterized by: applying voltage to the piezoelectric actuator to move the valve closure structure between a non-impact position where the valve closure structure is not impacting the valve seat and an impact position where at least a portion of the valve closure structure is impacting the valve seat; generating voltage data as the valve closure structure is moved; sensing the position of the valve closure structure as the valve closure structure is moved using a sensing device; generating position data as the valve closure structure is moved; establishing a reference point using the voltage and position data; and using the reference point to adjust the voltage applied to the piezoelectric actuator. applying voltage to the piezoelectric actuator to move the valve closure structure between a non-impact position where the valve closure structure is not impacting the valve seat and an impact position where at least a portion of the valve closure structure is impacting the valve seat; generating voltage data as the valve closure structure is moved; sensing the position of the valve closure structure as the valve closure structure is moved using a sensing device; generating position data as the valve closure structure is moved; establishing a reference point using the voltage and position data; and using the reference point to adjust the voltage applied to the piezoelectric actuator.
Process for producing a lithium ion cell, where a polymer layer is applied to an aluminium foil, where a nickel-containing cathode slurry is applied to the aluminium foil coated with a polymer layer, where the polymer layer is chemically and mechanically stable during this electrode production, and where the moist cathode slurry is dried, characterized in that the solvent used for the cathode slurry is water, where the polymer layer is dissolved during the forming of the lithium ion cell, namely in a first implementation of a charge-discharge sequence.
A filter comprising: a first flow face extending along a lateral direction and a transverse direction of the filter, wherein the first flow face comprises at least one contaminant retention layer first edge and at least one flow defining layer first edge; a second flow face spaced in an axial direction from the first flow face, wherein the second flow face extends along the length and the width of the filter and comprises at least one contaminant retention layer second edge and at least one flow defining layer second edge; at least one contaminant retention layer (14, 124) extending from the contaminant layer first edge to the contaminant layer second edge; and at least one flow defining layer (12, 122) adjacent to at least one of the contaminant retention layers (14, 124), the at least one flow defining layer (12, 122) extending from the flow defining layer first edge to the flow defining layer second edge; wherein the filter comprises a plurality of flow defining layers (12, 122) and contaminant retention layers (14, 124) arranged in a stack, and wherein the flow defining layers (12, 122) define fluid flow paths in the axial direction as fluid moves from the first flow face toward the second flow face, characterized by the fact that the stack comprises a total of between 40 and 100 flow defining layers and contaminant retention layers per inch (2,54 cm). a first flow face extending along a lateral direction and a transverse direction of the filter, wherein the first flow face comprises at least one contaminant retention layer first edge and at least one flow defining layer first edge; a second flow face spaced in an axial direction from the first flow face, wherein the second flow face extends along the length and the width of the filter and comprises at least one contaminant retention layer second edge and at least one flow defining layer second edge; at least one contaminant retention layer (14, 124) extending from the contaminant layer first edge to the contaminant layer second edge; and at least one flow defining layer (12, 122) adjacent to at least one of the contaminant retention layers (14, 124), the at least one flow defining layer (12, 122) extending from the flow defining layer first edge to the flow defining layer second edge; wherein the filter comprises a plurality of flow defining layers (12, 122) and contaminant retention layers (14, 124) arranged in a stack, and wherein the flow defining layers (12, 122) define fluid flow paths in the axial direction as fluid moves from the first flow face toward the second flow face, characterized by the fact that the stack comprises a total of between 40 and 100 flow defining layers and contaminant retention layers per inch (2,54 cm).
Motor control for an, in particular brushless, electric motor of a power tool, in particular a hand-held power tool, comprising a temperature sensor device, by means of which at least one temperature value, influenced by the operation of the electric motor, of a power tool component can be determined, a power measuring device which is set up to detect a power consumption value (P; I) characterizing the power consumption of the electric motor, an electronic control device, comprising a power limiting device, which, in order to limit the power consumption of the electric motor, is directed to limit the power consumption of the electric motor to a maximum permissible maximum power value (P max), characterized in that, that the power limiting device is further configured to adjust the maximum power value (P max) during operation of the electric motor as a function of the at least one temperature value, wherein the control device is programmable and is programmed to limit the power consumption (P; I) of the electric motor to the maximum permissible maximum power value (P max) and to adjust the maximum power value (P max) during operation of the electric motor as a function of the at least one temperature value, and wherein the control device is programmable and is programmed to reduce the maximum power value (50; P max) with increasing temperature, in particular linearly or according to a non-linear curve, and to increase it with increasing setpoint speed (60, n soll), in particular linearly or according to a non-linear curve. a temperature sensor device, by means of which at least one temperature value, influenced by the operation of the electric motor, of a power tool component can be determined, a power measuring device which is set up to detect a power consumption value (P; I) characterizing the power consumption of the electric motor, an electronic control device, comprising a power limiting device, which, in order to limit the power consumption of the electric motor, is directed to limit the power consumption of the electric motor to a maximum permissible maximum power value (P max), characterized in that, that the power limiting device is further configured to adjust the maximum power value (P max) during operation of the electric motor as a function of the at least one temperature value, wherein the control device is programmable and is programmed to limit the power consumption (P; I) of the electric motor to the maximum permissible maximum power value (P max) and to adjust the maximum power value (P max) during operation of the electric motor as a function of the at least one temperature value, and wherein the control device is programmable and is programmed to reduce the maximum power value (50; P max) with increasing temperature, in particular linearly or according to a non-linear curve, and to increase it with increasing setpoint speed (60, n soll), in particular linearly or according to a non-linear curve.
Combined device which comprises a cooking surface having at least one recess and a fume extractor arranged underneath the cooking surface in order to extract air from the space above the cooking surface via the at least one recess, wherein the fume extractor has a fan with an air inlet opening, the fan is constituted by a radial fan and the fan is arranged in the combined device such that the air inlet opening of the fan faces the cooking surface, in the top view of the cooking surface the air inlet opening of the fan is located at least partially underneath at least one of the at least one recess and the fume extractor and the cooking surface form an assembly unit, wherein the combined device comprises at least one cover for at least one part of the at least one recess and wherein a filter unit is arranged above the fan, wherein the filter unit comprises a filter holder and a filter element, characterised in that at least in one surface direction the cover has a smaller dimension than the recess, whereby at least one gap is formed between the edge of the recess and the edge of the cover, the cover is applied to the upper face of the filter element and the filter element constitutes a hollow body in which the filter surfaces of the filter element extend vertically, the filter holder covers the gap between the cover and the recess, in a vertical top view of the cooking surface and the filter holder has a collection area underneath the filter element for liquid.
An architecture of an internet of things, characterized by comprising: multiple levels of IOT service platforms, wherein a superordinate IOT service platform is configured to manage a subordinate IOT service platform, and also manage accessed special service platform and service gateway; and each level of IOT service platform, special service platform and service gateway directly provide IOT service access for third-party applications.
A pharmaceutical combination comprising (a) a HSP90 inhibitor and (b) a HER2 inhibitor, wherein the HSP90 inhibitor is 5-(2,4-Dihydroxy-5-isopropyl-phenyl)-4-(4-morpholin-4-ylmethyl-phenyl)-isoxazole-3-carboxylic acid ethylamide, or a pharmaceutically acceptable salt thereof; and the HER2 inhibitor is trastuzumab. (a) a HSP90 inhibitor and (b) a HER2 inhibitor,
A connector assembly, adapted to be fastened to a mounting support, comprising: - a connector foot portion, adapted to be fastened to the mounting support thanks to fastening devices, said connector foot portion comprising a base metal shield plate, - a connector body portion, extending away from the connector foot portion outwardly relative to the mounting support, and having a body shield member, whereby the body shield member is in electrical contact with the shield plate and whereby the shield plate is in electrical continuity with the fastening devices establishing a complete electrical continuity between the body shield member and the mounting support, wherein the connector foot portion has at least a hole receiving said fastening devices, characterized in that a metallic insert is inserted in the hole, this metallic insert being in electrical contact with the shield plate and with the fastening devices. - a connector foot portion, adapted to be fastened to the mounting support thanks to fastening devices, said connector foot portion comprising a base metal shield plate, - a connector body portion, extending away from the connector foot portion outwardly relative to the mounting support, and having a body shield member,
A pressure holding device (10a, 10b) for a resin injection system including an injection network connected to an injection mould characterised in that it includes:: - pressurising means adapted to inject a pressurised gas into a piping; - a first connecting means adapted to be connected to said resin injection network and adapted to be connected to said piping; - a second connecting means adapted to be connected to said injection mould of said injection system; said first connecting means being connected to said second connecting means by a pressure holding piping adapted to receive said pressurised injected gas, said first connecting means and said second connecting means being arranged such that the longitudinal axis of said pressure holding piping is oriented along a vertical direction. - pressurising means adapted to inject a pressurised gas into a piping; - a first connecting means adapted to be connected to said resin injection network and adapted to be connected to said piping; - a second connecting means adapted to be connected to said injection mould of said injection system;
A dispersion stabilizer for suspension polymerization, comprising a vinyl alcohol-based polymer and a vinyl alcohol-based polymer, wherein a 0.1 mass% concentration aqueous solution of the polymer has an absorbance of less than 0.25 at a wavelength of 280 nm, the aqueous solution has an absorbance of less than 0.030 at a wavelength of 320 nm, the polymer has a degree of saponification of not less than 68 mol% and not more than 98 mol%, the polymer has a viscosity-average degree of polymerization of more than 1500 and less than 4500, and the polymer in powder form has a YI value of not less than 5; and wherein a 0.1 mass% concentration aqueous solution of the polymer has an absorbance of not less than 0.25 at a wavelength of 280 nm, the aqueous solution has an absorbance of not less than 0.030 at a wavelength of 320 nm, the polymer has a degree of saponification of not less than 65 mol% and not more than 82 mol%, and the polymer has a viscosity-average degree of polymerization of not less than 500 and not more than 1500.