mhurhangee/ep-ind-claims huggingface dataset:
A transparent cosmetic cleansing composition containing, in addition to at least one surfactant and water: a) at least one oil, b) at least one solubilizer that contains polyethylene groups, selected from - addition products of 1 to 20 mol ethylene oxide to mono-, di- and/or triesters of glycerol and linear or branched, saturated or unsaturated C 8 -C 24 carboxylic acids in a weight proportion of 0.1 to 3.0 wt.% with respect to the total weight of the cleansing composition and - addition products of 25 to 80 mol ethylene oxide to castor oil and/or hydrogenated castor oil in a weight proportion of 0.5 to 5.0 wt.% with respect to the total weight of the cleansing composition and c) at least one thickener that contains polyethylene groups and/or polypropylene groups, in a weight proportion of 0.01 to 2.00 wt.% with respect to the total weight of the cleansing composition, selected from - addition products of 1 to 10 mol propylene oxide to C 8 -C 24 carboxamides and/or - addition products of 100 to 300 mol ethylene oxide and/or propylene oxide to mono-, di-, tri- and/or tetraesters of pentaerythritol to linear or branched, saturated or unsaturated C 8 -C 24 carboxylic acids. a) at least one oil, b) at least one solubilizer that contains polyethylene groups, selected from - addition products of 1 to 20 mol ethylene oxide to mono-, di- and/or triesters of glycerol and linear or branched, saturated or unsaturated C 8 -C 24 carboxylic acids in a weight proportion of 0.1 to 3.0 wt.% with respect to the total weight of the cleansing composition and - addition products of 25 to 80 mol ethylene oxide to castor oil and/or hydrogenated castor oil in a weight proportion of 0.5 to 5.0 wt.% with respect to the total weight of the cleansing composition and - addition products of 1 to 20 mol ethylene oxide to mono-, di- and/or triesters of glycerol and linear or branched, saturated or unsaturated C 8 -C 24 carboxylic acids in a weight proportion of 0.1 to 3.0 wt.% with respect to the total weight of the cleansing composition and - addition products of 25 to 80 mol ethylene oxide to castor oil and/or hydrogenated castor oil in a weight proportion of 0.5 to 5.0 wt.% with respect to the total weight of the cleansing composition and c) at least one thickener that contains polyethylene groups and/or polypropylene groups, in a weight proportion of 0.01 to 2.00 wt.% with respect to the total weight of the cleansing composition, selected from - addition products of 1 to 10 mol propylene oxide to C 8 -C 24 carboxamides and/or - addition products of 100 to 300 mol ethylene oxide and/or propylene oxide to mono-, di-, tri- and/or tetraesters of pentaerythritol to linear or branched, saturated or unsaturated C 8 -C 24 carboxylic acids. - addition products of 1 to 10 mol propylene oxide to C 8 -C 24 carboxamides and/or - addition products of 100 to 300 mol ethylene oxide and/or propylene oxide to mono-, di-, tri- and/or tetraesters of pentaerythritol to linear or branched, saturated or unsaturated C 8 -C 24 carboxylic acids.
A tire comprising a block in a tread portion; wherein the block has a side wall extending along a tire circumferential direction between end walls on both sides in the tire circumferential direction, and a central sipe (22, 26) formed along a tire width direction on a block tread of a block central portion in the tire circumferential direction and opening at the side wall, a side wall angle formed by a tire radial surface (K1, K2) and the side wall of the block increases from the block central portion toward each of the end walls on both sides in the tire circumferential direction, and an end wall angle formed by the tire radial surface (K1, K2) and the end wall of the block is the same as the side wall angle of the block at a circumferential end of the side wall, wherein a first tire radial surface is a reference surface of the side wall angle passing through a first edge portion between the block tread and the side wall, and the side wall angle of the block is the angle formed by the first tire radial surface and the side wall, and a second tire radial surface is a reference surface with an end wall angle passing through a second edge portion between the block tread surface and the end wall, and the end wall angle of the block is the angle formed by the second tire radial surface and the end wall, characterised in that the end wall angle is constant over the entire end wall. the block has a side wall extending along a tire circumferential direction between end walls on both sides in the tire circumferential direction, and a central sipe (22, 26) formed along a tire width direction on a block tread of a block central portion in the tire circumferential direction and opening at the side wall, a side wall angle formed by a tire radial surface (K1, K2) and the side wall of the block increases from the block central portion toward each of the end walls on both sides in the tire circumferential direction, and an end wall angle formed by the tire radial surface (K1, K2) and the end wall of the block is the same as the side wall angle of the block at a circumferential end of the side wall, wherein a first tire radial surface is a reference surface of the side wall angle passing through a first edge portion between the block tread and the side wall, and the side wall angle of the block is the angle formed by the first tire radial surface and the side wall, and a second tire radial surface is a reference surface with an end wall angle passing through a second edge portion between the block tread surface and the end wall, and the end wall angle of the block is the angle formed by the second tire radial surface and the end wall, characterised in that the end wall angle is constant over the entire end wall.
A floating solar power plant comprising: - at least one buoyant element surrounding the solar power plant wherein the buoyant element provides buoyancy and attachment of the solar power plant, - a first canvas covering all of the area surrounded by the buoyant element, that is affixed to said buoyant element and forms a saltwater barrier, characterized in that - a plurality of solar cell elements joined with a third canvas that is positioned within the buoyant element, wherein the area within the buoyant element and above the first canvas comprise non-saline water, wherein the plurality of solar cell elements and the third canvas are submerged in the non-saline water. - at least one buoyant element surrounding the solar power plant wherein the buoyant element provides buoyancy and attachment of the solar power plant, - a first canvas covering all of the area surrounded by the buoyant element, that is affixed to said buoyant element and forms a saltwater barrier, - a plurality of solar cell elements joined with a third canvas that is positioned within the buoyant element, wherein the area within the buoyant element and above the first canvas comprise non-saline water, wherein the plurality of solar cell elements and the third canvas are submerged in the non-saline water.
A coating on a substrate or a main body for a cutting tool, which includes a plurality of mutually superposed layer portions, wherein the coating has an outer cover layer with a first layer portion of metallic aluminium or an aluminium alloy of a layer thickness of 10 nm to 500 nm, and a second layer portion arranged thereover of aluminium oxide or a mixed oxide which contains aluminium and at least one further metal of a layer thickness of 5 nm to 100 nm, and the coating under the cover layer has at least one metallic hard material layer portion as a wear protection layer, and the outer cover layer with the first layer portion of metallic aluminium or an aluminium alloy and the second layer portion arranged thereover of aluminium oxide or a mixed oxide which contains aluminium and at least one further metal is produced in the PVD process with at least one aluminium-containing target.
A cable modem supporting full duplex, FDX, operations, comprising: a transmit circuitry configured to process a transmit signal; and a receive circuitry configured to process a receive signal, wherein the receive circuitry includes: a switchable analog filter configured to filter the receive signal, wherein the switchable analog filter is configurable for different passband frequencies; a digital compensation filter configured to compensate a difference in frequency response in a specific frequency band due to switching of the switchable analog filter for a different passband frequency, wherein when switching, the digital compensation filter is synchronized with a propagation of a switchable analog filter switching effect; and an adjacent channel interference, ACI, cancellation filter configured to generate an ACI cancellation signal based on the transmit signal in a digital domain. a transmit circuitry configured to process a transmit signal; and a receive circuitry configured to process a receive signal, wherein the receive circuitry includes: a switchable analog filter configured to filter the receive signal, wherein the switchable analog filter is configurable for different passband frequencies; a digital compensation filter configured to compensate a difference in frequency response in a specific frequency band due to switching of the switchable analog filter for a different passband frequency, wherein when switching, the digital compensation filter is synchronized with a propagation of a switchable analog filter switching effect; and an adjacent channel interference, ACI, cancellation filter configured to generate an ACI cancellation signal based on the transmit signal in a digital domain. a switchable analog filter configured to filter the receive signal, wherein the switchable analog filter is configurable for different passband frequencies; a digital compensation filter configured to compensate a difference in frequency response in a specific frequency band due to switching of the switchable analog filter for a different passband frequency, wherein when switching, the digital compensation filter is synchronized with a propagation of a switchable analog filter switching effect; and an adjacent channel interference, ACI, cancellation filter configured to generate an ACI cancellation signal based on the transmit signal in a digital domain.
An inhibitor-resistant luciferase comprising enhanced resistance to inhibition by dehydroluciferin and derivatives thereof compared to a luciferase of SEQ ID NO: 3, wherein the inhibitor-resistant luciferase comprises at least 70% sequence identity with SEQ ID NO: 11, and comprises substitutions relative to SEQ ID NO: 3 at positions 244, 300, 344, and 396 of SEQ ID NO: 3.
An interior trim part (1, 1a-1f) for a motor vehicle, having a transparent body that is covered on one side by a decorative layer that forms a visible side and can be transilluminated at least in regions, wherein at least one opaque component is connected to edge regions and/or to a rear side of the transparent body, in such a way that at least one transillumination region of the transparent body remains, which can be transilluminated by light beams of at least one illuminant arranged in the interior trim part (1, 1a-1f), wherein the opaque component is designed in a frame-like manner, so that, viewed in cross section of the interior trim part (1, 1a-1f), the opaque component and the transparent body overlap only in an overlapping region (ÜB) at the edge, forming a material interface, characterized in that, viewed in a cross section of the interior trim part (1, 1a-1f), the decorative layer is brought up to the opaque component, wherein the decorative layer, the transparent body and the opaque component are a composite part formed as a multi-component injection-molded part and the material interface, starting from a circumferential edge of the composite part, extends inwards at least in portions in such a way that the material of the transparent body increases steadily, whereas the material of the opaque component decreases steadily.
An aggregate vane assembly comprising: a core vane assembly encircling a central longitudinal axis and having a plurality of core vanes each extending radially between an inner hub and an outer band wherein said core vane assembly extends along said central longitudinal axis between a first forward end and a first aft end; a bypass vane assembly disposed on a radially opposite side of said outer band relative to said plurality of core vanes, said bypass vane assembly including at least one bypass vane extending radially outward from a platform and said bypass vane assembly extending along said central longitudinal axis between a second forward end and a second aft end, characterised in that said bypass vane assembly includes a lip 78 extending from the platform; a ring formed of a plurality of ring segments, and a plurality of bosses (62,64) fixed with said outer band and in that the plurality of bosses (62,64) engages said bypass vane assembly proximate to said second forward end; wherein said plurality of bosses (62,64) includes a first set of bosses and a second set of bosses; wherein said ring segments are secured to said first set of bosses (62,64); wherein engagement between said lip and said second set of bosses limits movement of the bypass vane assembly along the central longitudinal axis; and wherein engagement between said lip and said first set of bosses limits movement of the bypass vane assembly about the central longitudinal axis. a core vane assembly encircling a central longitudinal axis and having a plurality of core vanes each extending radially between an inner hub and an outer band wherein said core vane assembly extends along said central longitudinal axis between a first forward end and a first aft end; a bypass vane assembly disposed on a radially opposite side of said outer band relative to said plurality of core vanes, said bypass vane assembly including at least one bypass vane extending radially outward from a platform and said bypass vane assembly extending along said central longitudinal axis between a second forward end and a second aft end, characterised in that said bypass vane assembly includes a lip 78 extending from the platform; a ring formed of a plurality of ring segments, and a plurality of bosses (62,64) fixed with said outer band and in that the plurality of bosses (62,64) engages said bypass vane assembly proximate to said second forward end; wherein said plurality of bosses (62,64) includes a first set of bosses and a second set of bosses; wherein said ring segments are secured to said first set of bosses (62,64); wherein engagement between said lip and said second set of bosses limits movement of the bypass vane assembly along the central longitudinal axis; and wherein engagement between said lip and said first set of bosses limits movement of the bypass vane assembly about the central longitudinal axis.
A connector for connecting to a complementary outlet in an operating condition in order to produce a data connection, comprising: a connector housing comprising a connecting apparatus which is configured to come into engagement at least partially with the complementary outlet and to be connected thereto; a circumferential sealing element, wherein the circumferential sealing element is arranged on the connecting apparatus; a circumferential pressing element which is designed to fix the circumferential sealing element to the connector housing, wherein the circumferential sealing element is designed to produce a seal with respect to the connector housing in the operating condition; and a circumferential connector housing shoulder, on which the sealing element is arranged, wherein the pressing element fixes the circumferential sealing element to the circumferential connector housing shoulder, wherein the circumferential sealing element has a circumferential sealing element groove which is open in the direction of the connector housing shoulder. a connector housing comprising a connecting apparatus which is configured to come into engagement at least partially with the complementary outlet and to be connected thereto; a circumferential sealing element, wherein the circumferential sealing element is arranged on the connecting apparatus; a circumferential pressing element which is designed to fix the circumferential sealing element to the connector housing, wherein the circumferential sealing element is designed to produce a seal with respect to the connector housing in the operating condition; and a circumferential connector housing shoulder, on which the sealing element is arranged, wherein the pressing element fixes the circumferential sealing element to the circumferential connector housing shoulder, wherein the circumferential sealing element has a circumferential sealing element groove which is open in the direction of the connector housing shoulder.
A controller (2, 4, 6) for a Cloud based service handling multiple types of traffic in a telecommunications network, wherein the service is provided by virtual network functions, the controller being configured: to automatically model use of Cloud resources allocated to the service for specific workloads of each of a plurality of traffic types thereby providing a plurality of workload-specific models for each traffic type in which said traffic types comprise messaging, audio and video traffic types; to automatically generalise the workload-specific models thereby providing generalised models for each traffic type, generalised in being applicable to other workloads than the specific workloads, in which the generalisation is a reduction of the plurality of workload-specific models for each traffic type to a reduced number of models for all types of traffic which is achieved by combining different metrics per workload and virtual network function, VNF; to automatically evaluate accuracy of the generalised models for various combinations of given workloads, in each combination each of the given workloads being of a different corresponding one of said traffic types, and to select one of the generalised models dependent upon evaluated accuracy; and to control operation of the Cloud resources according to the selected model. to automatically model use of Cloud resources allocated to the service for specific workloads of each of a plurality of traffic types thereby providing a plurality of workload-specific models for each traffic type in which said traffic types comprise messaging, audio and video traffic types; to automatically generalise the workload-specific models thereby providing generalised models for each traffic type, generalised in being applicable to other workloads than the specific workloads, in which the generalisation is a reduction of the plurality of workload-specific models for each traffic type to a reduced number of models for all types of traffic which is achieved by combining different metrics per workload and virtual network function, VNF; to automatically evaluate accuracy of the generalised models for various combinations of given workloads, in each combination each of the given workloads being of a different corresponding one of said traffic types, and to select one of the generalised models dependent upon evaluated accuracy; and to control operation of the Cloud resources according to the selected model.
A diagnosing server comprising: a sound receiving unit that receives, through a predetermined communication network, product information including at least one of an identification information of a home appliance, setting information, operation information, and mal-function information, which is output from the home appliance; a sound recording unit that records a signal received through the sound receiving unit; a signal processing unit that inversely extracts the product information from the signal recorded by the sound recording unit; and a diagnosing unit that analyzes the product information, diagnoses a state or failure of the home appliance, and produces a diagnosis result, characterised in that: the signal processing unit is adapted to detect a start point of a preamble representing a start of the product information and a frequency of the signal, to detect the preamble through pattern matching, to perform demodulation and decoding any one of a plurality of frames constituting the product information with respect to the preamble, and to detect an error of the preamble, and wherein the signal processing unit is adapted to compensate for the error occurring during a transmission process by setting a predetermined section before and after a position of the preamble as a preamble start area. a sound receiving unit that receives, through a predetermined communication network, product information including at least one of an identification information of a home appliance, setting information, operation information, and mal-function information, which is output from the home appliance; a sound recording unit that records a signal received through the sound receiving unit; a signal processing unit that inversely extracts the product information from the signal recorded by the sound recording unit; and a diagnosing unit that analyzes the product information, diagnoses a state or failure of the home appliance, and produces a diagnosis result, characterised in that: the signal processing unit is adapted to detect a start point of a preamble representing a start of the product information and a frequency of the signal, to detect the preamble through pattern matching, to perform demodulation and decoding any one of a plurality of frames constituting the product information with respect to the preamble, and to detect an error of the preamble, and wherein the signal processing unit is adapted to compensate for the error occurring during a transmission process by setting a predetermined section before and after a position of the preamble as a preamble start area.
A circuit for generating a plurality of sampling clocks (Qp, Qp) synchronized relative to one another to reduce timing mismatch for sampling of multiple analog signal channels, the circuit comprising: first circuitry (202, 206) configured to receive a plurality of input signals and selectively set each sampling clock of the plurality of sampling clocks (Qp, Qp) to a first output state, wherein a selected sampling clock of the plurality of sampling clocks (Qp, Qp) is set to the first output state when a selected input of the plurality of input signals is set to a first input state; and second circuitry configured to receive an input clock signal and transition each of the plurality of sampling clocks (Qp, Qp) to a second output state by connecting each of the plurality of sampling clocks (Qp, Qp) to a node set at the second output state through a common path, wherein a selected sampling clock of the plurality of sampling clocks (Qp, Qp) is transitioned from the first output state to the second output state through the common path in response to a transition of the input clock signal from a first clock state to a second clock state. first circuitry (202, 206) configured to receive a plurality of input signals and selectively set each sampling clock of the plurality of sampling clocks (Qp, Qp) to a first output state, wherein a selected sampling clock of the plurality of sampling clocks (Qp, Qp) is set to the first output state when a selected input of the plurality of input signals is set to a first input state; and second circuitry configured to receive an input clock signal and transition each of the plurality of sampling clocks (Qp, Qp) to a second output state by connecting each of the plurality of sampling clocks (Qp, Qp) to a node set at the second output state through a common path, wherein a selected sampling clock of the plurality of sampling clocks (Qp, Qp) is transitioned from the first output state to the second output state through the common path in response to a transition of the input clock signal from a first clock state to a second clock state.