mhurhangee/ep-ind-claims huggingface dataset:
Motor vehicle lighting device having a housing and a covering plate covering a light exit opening of the housing, wherein the housing and the covering plate delimit an interior space of the motor vehicle lighting device, wherein the covering plate is in the form of a cup which has a transparent base and a skirt surrounding the base and projecting therefrom in the form of a wall, and also having a sealing bed which surrounds the light exit opening of the housing and in which the rim is received and held tightly and firmly, having at least one ventilation opening and at least one exhaust opening, wherein a first air guide structure is arranged on the outside of the ventilation opening, wherein this first air guide structure is set up and arranged to guide air, which flows along the outside of the lighting device due to the influence of the wind when the lighting device is used as intended in a moving motor vehicle, into the interior of the lighting device, into the interior of the lighting device, characterized in that the ventilation opening is arranged transversely to the housing wall adjoining the ventilation opening in the air flow on the outside of the sealing bed, in that a vent opening lies transversely to the housing wall in the air flow on the outside of the sealing bed, in that the lighting device comprises a further air guide structure which projects into the said airstream in the direction of the airstream immediately upstream of the vent opening, and in that air-conducting structures, such as ducts and/or ribs and/or tubes, are arranged in the interior of the lighting device, which structures, by virtue of their arrangement and shape, are designed to direct at least parts of a ventilation volume flow passing through the lighting device to specific regions in the lighting device at which a particularly large amount of moisture occurs.
A liquid pharmaceutical formulation for injection comprising: (i) an antibody; (ii) 1-butyl-3-methylimidazolium methanesulfonate (BMI Mes); and (iii) a pharmaceutically acceptable solvent; wherein the liquid pharmaceutical formulation, when in a volume suitable for injection: (a) has an absolute viscosity of from 1 mPa.s (1 cP) to 100 mPa.s (100 cP) at 25°C as measured using a cone and plate viscometer or a microfluidic viscometer; and (b) the absolute viscosity of the liquid pharmaceutical formulation is less than an absolute viscosity of a control composition comprising the antibody and the pharmaceutically acceptable solvent but without the BMI Mes; wherein the absolute viscosity is an extrapolated zero-shear viscosity. (i) an antibody; (ii) 1-butyl-3-methylimidazolium methanesulfonate (BMI Mes); and (iii) a pharmaceutically acceptable solvent; (a) has an absolute viscosity of from 1 mPa.s (1 cP) to 100 mPa.s (100 cP) at 25°C as measured using a cone and plate viscometer or a microfluidic viscometer; and (b) the absolute viscosity of the liquid pharmaceutical formulation is less than an absolute viscosity of a control composition comprising the antibody and the pharmaceutically acceptable solvent but without the BMI Mes;
A membrane for sealing a spout of a food package on its interior side, comprising a central circular disc member, an outer annular disc member connected to said central circular disc member along its inner periphery at a connection angle (α), and a resilient tubular portion extending between a first open end and a second end being connected to the outer annular disc member, characterized in that the diameter of said second end being smaller than the outer diameter of said outer annular disc member, and in that the outer annular disc member is pivotable relative the central circular disc member for increasing the diameter of the second end of said tubular portion by changing said connection angle (α).
A method of manufacture of a light-emitting diode comprising a substrate upon which are sequentially provided a reflecting layer, a transparent film wherein multiple ohmic contact electrodes are embedded at intervals, and a compound semiconductor layer sequentially including a current diffusion layer and a light-emitting layer, wherein the method comprises the following steps in this order: a step of forming the compound semiconductor layer that includes the light-emitting layer and the current diffusion layer on a growth substrate in this order; a step of forming multiple ohmic contact electrodes that are disposed at intervals on said current diffusion layer so that the ohmic contact electrodes are in contact with the current diffusion layer; a step of forming the transparent film on said current diffusion layer so as to expose a part of the surface of each of said multiple ohmic contact electrodes, wherein the part is a part except for periphery of the surface; a step of forming the reflecting layer on said transparent film, and on the exposed portions of said ohmic contact electrodes; a step of forming a bonding layer on said reflecting layer; a step of bonding the substrate to said bonding layer; and a step of removing said growth substrate, wherein the ohmic contact electrodes have a cylindrical, elliptic cylindrical, or donut shape. a step of forming the compound semiconductor layer that includes the light-emitting layer and the current diffusion layer on a growth substrate in this order; a step of forming multiple ohmic contact electrodes that are disposed at intervals on said current diffusion layer so that the ohmic contact electrodes are in contact with the current diffusion layer; a step of forming the transparent film on said current diffusion layer so as to expose a part of the surface of each of said multiple ohmic contact electrodes, wherein the part is a part except for periphery of the surface; a step of forming the reflecting layer on said transparent film, and on the exposed portions of said ohmic contact electrodes; a step of forming a bonding layer on said reflecting layer; a step of bonding the substrate to said bonding layer; and a step of removing said growth substrate, wherein the ohmic contact electrodes have a cylindrical, elliptic cylindrical, or donut shape.
Hinge with a first hinge element for arrangement on a closing element and a second hinge element for arrangement on a frame, which are connected to one another in an articulated manner about a hinge axis, with at least one actuating element for adjusting the distance of the hinge axis relative to at least one of the two hinge elements, wherein the hinge axis is arranged on an axle support arranged between the two hinge elements (2, 3), wherein the actuating element is in the form of a cylindrical element with a thread (5.1) for connection to a counter-thread (3.1) of the hinge element and a head (5.3) which is diametrically opposite the thread and forms the end of the actuating element, a guide (4.4, 3.4) being provided for guiding the adjusting movements of the axle support, the guide (4.4, 3.4) being formed from a guide region (4.4) on the axle support side and a guide region (3.4) on the hinge element side which bear against one another in the manner of a sliding guide, characterized in that the axle support comprises a bearing opening (4.1) with a bearing region (4.11) for transmitting shear and tensile forces and a larger insertion region (4.12) for inserting the at least one actuating element, and the bearing region (4.11) and the insertion region (4.12) form a keyhole-shaped bearing opening (4.1), the actuating element having a groove (5.2) in the form of a circumferential taper between the head and the thread for rotationally movable but axially fixed arrangement on the axle support and wherein the actuating element is positively mounted in the bearing opening (4.1) via the groove (5.2) so that shear and tensile forces can be transmitted from the actuating element to the axle support for adjusting the distance relative to the hinge element.
A system, comprising: a distributed acoustic sensing data collection system coupled to at least one optical fiber at least partially positioned within a wellbore; and an information handling system coupled to the DAS data collection system, the information handling system comprising a processor and a memory device coupled to the processor, the memory device containing a set of instruction that, when executed by the processor, cause the processor to receive seismic data from the DAS data collection system, the seismic data comprising seismic traces associated with a plurality of depths in the wellbore; determine a quality factor for each seismic trace; and remove one or more seismic traces from the seismic data based, at least in part, on the determined quality factors. a distributed acoustic sensing data collection system coupled to at least one optical fiber at least partially positioned within a wellbore; and an information handling system coupled to the DAS data collection system, the information handling system comprising a processor and a memory device coupled to the processor, the memory device containing a set of instruction that, when executed by the processor, cause the processor to receive seismic data from the DAS data collection system, the seismic data comprising seismic traces associated with a plurality of depths in the wellbore; determine a quality factor for each seismic trace; and remove one or more seismic traces from the seismic data based, at least in part, on the determined quality factors. receive seismic data from the DAS data collection system, the seismic data comprising seismic traces associated with a plurality of depths in the wellbore; determine a quality factor for each seismic trace; and remove one or more seismic traces from the seismic data based, at least in part, on the determined quality factors.
A communication method carried out by a multi-link device in a wireless local area network, WLAN, comprising: receiving, by a station, a probe request frame, wherein the station belongs to a multi-link device; characterized by determining, by the station according to a preset condition, whether to respond to the probe request frame, wherein the preset condition comprises at least: a reference identifier in the probe request frame does not match a reference identifier of each station in the multi-link device; and if the preset condition is satisfied, skipping sending a probe response frame in response to the probe request frame. receiving, by a station, a probe request frame, wherein the station belongs to a multi-link device; characterized by determining, by the station according to a preset condition, whether to respond to the probe request frame, wherein the preset condition comprises at least: a reference identifier in the probe request frame does not match a reference identifier of each station in the multi-link device; and if the preset condition is satisfied, skipping sending a probe response frame in response to the probe request frame. a reference identifier in the probe request frame does not match a reference identifier of each station in the multi-link device; and if the preset condition is satisfied, skipping sending a probe response frame in response to the probe request frame.
Lubricant composition comprising an ester component derived from (a) an alcohol component, which is a C 17 alcohol mixture having an average iso-index of 2.8 to 3.7 calculated as defined in the Examples and (b) an acid component, which is an aliphatic C 4 -C 10 dicarboxylic acid or cyclohexanedicarboxylic acid.
A method for identifying malicious encrypted network traffic associated with a malware software component communicating via a network, the method comprising: defining, for the malware, a portion of network traffic including a plurality of contiguous bytes occurring at a predefined offset in a network communication of the malware; extracting the defined portion of network traffic for each of a plurality of disparate encrypted network connections for the malware; training an autoencoder based on each extracted portion of network traffic, wherein the autoencoder includes: a set of input units each for representing information from a byte of an extracted portion; output units each for storing an output of the autoencoder; and a set of hidden units smaller in number than the set of input units and each interconnecting all input and all output units with weighted interconnections, such that the autoencoder is trainable to provide an approximated reconstruction of values of the input units at the output units; selecting a set of one or more offsets in the definition of a portion of network traffic as candidate locations for communication of an initialisation vector for encryption of the network traffic, the selection being based on weights of interconnections in the autoencoder; and identifying malicious network traffic based on an identification of an initialisation vector in the network traffic at one of the candidate locations. defining, for the malware, a portion of network traffic including a plurality of contiguous bytes occurring at a predefined offset in a network communication of the malware; extracting the defined portion of network traffic for each of a plurality of disparate encrypted network connections for the malware; training an autoencoder based on each extracted portion of network traffic, wherein the autoencoder includes: a set of input units each for representing information from a byte of an extracted portion; output units each for storing an output of the autoencoder; and a set of hidden units smaller in number than the set of input units and each interconnecting all input and all output units with weighted interconnections, such that the autoencoder is trainable to provide an approximated reconstruction of values of the input units at the output units; selecting a set of one or more offsets in the definition of a portion of network traffic as candidate locations for communication of an initialisation vector for encryption of the network traffic, the selection being based on weights of interconnections in the autoencoder; and identifying malicious network traffic based on an identification of an initialisation vector in the network traffic at one of the candidate locations.
Use of a formulation comprising: a polymeric binder resin which comprises a thermoplastic vinyl resin comprising a polyvinyl acetal resin; a polymethyl methacrylate resin; a cellulose ester resin comprising cellulose acetate propionate; and an organic solvent comprising one or more of n-hexane, methanol, methyl n-butyl ketone, methyl ethyl ketone, toluene and hexanedione; wherein the formulation does not include colloidal silica and wherein the formulation does not include diethyl ketone; for forming a thermally transferable protective laminate overcoat of a thermal transfer donor element. a polymeric binder resin which comprises a thermoplastic vinyl resin comprising a polyvinyl acetal resin; a polymethyl methacrylate resin; a cellulose ester resin comprising cellulose acetate propionate; and an organic solvent comprising one or more of n-hexane, methanol, methyl n-butyl ketone, methyl ethyl ketone, toluene and hexanedione; wherein the formulation does not include colloidal silica and wherein the formulation does not include diethyl ketone;
Method for cladding a glassware mould made of cast iron, bronze or steel, during which a cladding material is welded, comprising the following step: - machining an edge (C, F, J) of the mould so as to form a planar surface, for example a flat or a chamfer, the method being characterised in that it comprises the steps consisting in: - depositing a determined quantity of cladding material on the planar surface of the machined edge (C, F, J), the cladding material comprising a metal or a metal alloy, and, simultaneously, - locally welding the cladding material on the surface plane using a beam of a laser, in such a way as to form a reinforcing zone wherein the planar surface of the mould to be cladded is arranged downstream at a distance between 2 mm and 15 mm from a focusing zone of the beam of the laser. - machining an edge (C, F, J) of the mould so as to form a planar surface, for example a flat or a chamfer, the method being characterised in that it comprises the steps consisting in: - depositing a determined quantity of cladding material on the planar surface of the machined edge (C, F, J), the cladding material comprising a metal or a metal alloy, and, simultaneously, - locally welding the cladding material on the surface plane using a beam of a laser, in such a way as to form a reinforcing zone
A paper money transporting and storing device, comprising a paper money transporting passage and a cashbox assembly for storing paper money, wherein the cashbox assembly is disposed within a cashbox assembly bracket, the cashbox assembly bracket is a box body, one surface of which may be covered by turning the paper money transporting passage and the paper money transporting passage comprises a side wall, wherein a locking mechanism is provided at one end of the paper money transporting passage, wherein the opposite other end of the paper money transporting passage is pivoted with respect to a side wall of the cashbox assembly bracket through a pivot shaft and the locking mechanism comprises: a fixed bracket, which is fixed to the other end of the paper money transporting passage in order to install and support components necessary for locking; a long locking member, which comprises a rotation shaft extending across opposite end surfaces of the fixed bracket and locking hooks fixed to both ends of the rotation shaft, wherein an openable connection is formed between the locking hooks and locking pins correspondingly provided on side walls of the cashbox assembly bracket; and an unlocking handle, which is fixed to the rotation shaft in order to drive the rotation shaft to freely rotate so that the locking hooks are driven to be engaged with or disengaged from corresponding locking pins; wherein, a transporting passage closed in-position detecting mechanism is provided on the side wall of the cashbox assembly bracket. a fixed bracket, which is fixed to the other end of the paper money transporting passage in order to install and support components necessary for locking; a long locking member, which comprises a rotation shaft extending across opposite end surfaces of the fixed bracket and locking hooks fixed to both ends of the rotation shaft, wherein an openable connection is formed between the locking hooks and locking pins correspondingly provided on side walls of the cashbox assembly bracket; and an unlocking handle, which is fixed to the rotation shaft in order to drive the rotation shaft to freely rotate so that the locking hooks are driven to be engaged with or disengaged from corresponding locking pins; wherein, a transporting passage closed in-position detecting mechanism is provided on the side wall of the cashbox assembly bracket.
A computer-implemented method for determining one or more outcomes in relation to a subject comprising: generating, with a data processing apparatus, a reference value, the reference value corresponding to an amount of protein expression of AE1/AE3 (cytokeratin), TAB250 (Her2-ECD), c-erb B2 and phosphorylated Her 2 (pHer2) in a control sample; measuring, using an immunoassay, data that is indicative of a level of protein expression of AE1/AE3 (cytokeratin), TAB250 (Her2-ECD), c-erb B2 and phosphorylated Her 2 (pHer2) of the subject by: contacting a formalin fixed paraffin-embedded tissue sample of the subject to antibodies of Her2, Her2-ECD, cytokeratin and pHER2, and detecting the presence or absence of a reaction product; inputting, to the data processing apparatus, the data that is indicative of the level of protein expression of AE1/AE3 (cytokeratin), TAB250 (Her2-ECD), c-erb B2 and phosphorylated Her 2 (pHer2) of the subject; determining, by the data processing apparatus, a subject value corresponding to the level of protein expression of AE1/AE3 (cytokeratin), TAB250 (Her2-ECD), c-erb B2 and phosphorylated Her 2 (pHer2) in the formalin fixed, paraffin-embedded tissue sample from a subject; comparing the subject value to the reference value; and based on the comparison of the subject value to the reference value, determining one or more outcomes in relation to the subject. generating, with a data processing apparatus, a reference value, the reference value corresponding to an amount of protein expression of AE1/AE3 (cytokeratin), TAB250 (Her2-ECD), c-erb B2 and phosphorylated Her 2 (pHer2) in a control sample; measuring, using an immunoassay, data that is indicative of a level of protein expression of AE1/AE3 (cytokeratin), TAB250 (Her2-ECD), c-erb B2 and phosphorylated Her 2 (pHer2) of the subject by: contacting a formalin fixed paraffin-embedded tissue sample of the subject to antibodies of Her2, Her2-ECD, cytokeratin and pHER2, and detecting the presence or absence of a reaction product; contacting a formalin fixed paraffin-embedded tissue sample of the subject to antibodies of Her2, Her2-ECD, cytokeratin and pHER2, and detecting the presence or absence of a reaction product; inputting, to the data processing apparatus, the data that is indicative of the level of protein expression of AE1/AE3 (cytokeratin), TAB250 (Her2-ECD), c-erb B2 and phosphorylated Her 2 (pHer2) of the subject; determining, by the data processing apparatus, a subject value corresponding to the level of protein expression of AE1/AE3 (cytokeratin), TAB250 (Her2-ECD), c-erb B2 and phosphorylated Her 2 (pHer2) in the formalin fixed, paraffin-embedded tissue sample from a subject; comparing the subject value to the reference value; and based on the comparison of the subject value to the reference value, determining one or more outcomes in relation to the subject.
A device for linearizing non-linear signal transmission characteristics of an optical communication system, said optical communication system comprising an input port, an output port and a non-linearity introducing part between said input port and said output port, which non-linearity introducing part at least partly causes said non-linear signal transmission characteristics, wherein said device is configured for connection between said input port and the non-linearity introducing part, in parallel with the non-linearity introducing part, and comprises a pair of Junction Field Effect Transistors (T1, T2), "JFETs", configured to operate in an anti-parallel configuration by being connected in parallel relative to each other but configured to operate in inverse or opposite directions by being arranged with reversed polarities, wherein the pair of JFETs (T1, T2) are configured to operate in serial relative to each other at a Direct Current, "DC", voltage level and in anti-parallel relative to each other in an operative frequency range above said DC voltage level.
A process for heat treating a plastic pressurized container, the process comprising the steps of: a) forming a material into a plastic bottle, said material having a glass transition temperature, Tg, of at least 60°C, preferably greater than 70°C; b) heating said bottle to a temperature from 5°C to 15°C below said Tg of the material; c) holding the container at this temperature for a period of from 2 to 90 minutes; d) cooling the container in a controlled manner for a period of from 2 to 90 minutes to a lower temperature of from 10°C to 40°C; e) filling said bottle with a product; f) pressurizing said bottle; g) closing said bottle with a valve or other pressure tight fitment, wherein said container is resistant to polar liquids, resistant to impact stresses, and the combinations thereof. a) forming a material into a plastic bottle, said material having a glass transition temperature, Tg, of at least 60°C, preferably greater than 70°C; b) heating said bottle to a temperature from 5°C to 15°C below said Tg of the material; c) holding the container at this temperature for a period of from 2 to 90 minutes; d) cooling the container in a controlled manner for a period of from 2 to 90 minutes to a lower temperature of from 10°C to 40°C; e) filling said bottle with a product; f) pressurizing said bottle; g) closing said bottle with a valve or other pressure tight fitment,