mhurhangee/ep-ind-claims huggingface dataset:
A coupling comprising a male and a female element (112,102) the elements comprising an end surface (116,106) and two angled side surfaces (118,108) disposed either side of the end surface (116,106); characterised in that at least one of the side surfaces (118,108) of at least one of the elements has an outwardly convex profile, and at least one of the side surfaces (118,108) of the other element has either a planar profile or an outwardly convex profile.
A hinge-sided finger protection device for a leaf door, wherein the finger protection device comprises at least one protective profile and at least one fastening means for fastening the protective profile to a door frame of the leaf door, wherein the protective profile can be plugged onto the fastening means and wherein the protective profile accommodates in itself the fastening means in the plugged-on state, characterized in that the protective profile is non-destructively removable from the fastening means and can be again plugged thereon.
Dishwasher, in particular a household dishwasher, comprising a washing container which provides a washing chamber and is used to receive washware to be cleaned, and comprising a water storage tank which is arranged next to the washing container and is arranged on the washing container so as to have an air duct which extends in the vertical direction of the washing container arranged therebetween, characterised in that the air duct is connected, on the inlet side, to an air outlet duct of a fresh air blower of the dishwasher and is delimited, on the water storage tank side, by a deep groove which is provided by the water storage tank, extends in the vertical direction and is formed on the outside of the wall of the water storage tank facing the washing container, the air duct being delimited, on the washing container side, by the outer surface of the associated wall of the washing container.
Multiway valve with a valve casing in which is located an elongated casing recess equipped with several annular sealing faces, spaced axially apart and each facing radially inwards, wherein at least one of the annular sealing faces is arranged between two recess sections of the casing recess, into which opens in each case at least one valve passage passing through the valve casing, wherein there is located in the casing recess a hollow control piston with a piston longitudinal axis, and which for the purpose of positioning may be shifted axially in the longitudinal direction of the casing recess and which has a tubular peripheral wall encompassing a piston cavity and with a peripheral wall outer surface on the radial outside, and which has several shut-off sections spaced axially apart from one another and an overflow section between at least two axially adjacent shut-off sections, wherein the peripheral wall has in the area of each overflow section at least one overflow recess, radially deepened relative to the axially adjacent shut-off sections, and wherein the tubular peripheral wall of the control piston is hollow-cylindrical throughout and has a cylindrical wall outer surface extending without steps also axially over each overflow section and by which the control piston fits up with sliding against the annular sealing faces surrounding it, wherein each overflow recess is in the form of a window-like wall opening of the peripheral wall leading into the piston cavity and extending only a short distance around the piston longitudinal axis, characterised in that the piston cavity is divided by at least one bulkhead-like partition into several axially consecutive sub-cavities, wherein the peripheral wall has at least two overflow sections arranged axially between two shut-off sections and the overflow recesses belonging to different overflow sections lead into different sub-cavities.
An electronic device for long-term adhesion to a mammal, the device comprising: a housing forming a water-tight enclosure: a rigid physiologic data collection circuit contained in the housing; a first wing and a second wing extending laterally from the housing without overlapping, wherein each wing includes a hinge portion (194, 196) adjacent the housing; a first electrode positioned on the bottom surface of the first wing and a second electrode positioned on the bottom surface of the second wing, the electrodes electronically connected to the physiologic data collection circuit; an adhesive layer (164, 166) on the bottom surfaces of the wings and not on a bottom surface of the housing, wherein the adhesive layer provides adhesion to the surface of the mammal, and wherein the housing is unattached to the mammal when the electrodes are in contact with the mammal; characterized in that the device further comprises a first flap connected to the first wing and a second flap connected to the second wing, wherein the flaps extend below the housing, but are not attached to the housing, which allows the housing to float above the wings when the electrodes are in contact with the mammal, wherein the rigid physiologic data collection circuit extends along only a portion of the distance between the electrodes (124, 126). a rigid physiologic data collection circuit contained in the housing; a first wing and a second wing extending laterally from the housing without overlapping, wherein each wing includes a hinge portion (194, 196) adjacent the housing; a first electrode positioned on the bottom surface of the first wing and a second electrode positioned on the bottom surface of the second wing, the electrodes electronically connected to the physiologic data collection circuit; an adhesive layer (164, 166) on the bottom surfaces of the wings and not on a bottom surface of the housing, wherein the adhesive layer provides adhesion to the surface of the mammal, and wherein the housing is unattached to the mammal when the electrodes are in contact with the mammal; characterized in that the device further comprises a first flap connected to the first wing and a second flap connected to the second wing, wherein the flaps extend below the housing, but are not attached to the housing, which allows the housing to float above the wings when the electrodes are in contact with the mammal, wherein the rigid physiologic data collection circuit extends along only a portion of the distance between the electrodes (124, 126).
A microinjection apparatus that injects an object into an adherent cell with a needle, the needle being variable in its position in a first direction, the microinjection apparatus comprising: an image acquiring unit (132, 135, 158) that acquires a magnified image of a leading edge of the needle; a needle detecting unit that detects the leading edge of the needle in the magnified image; a shape judging unit that determines a shape of the leading edge of the needle in the magnified image when a differential aggregate calculated from the image of the leading edge of the needle detected by the needle detecting unit is lower than a first threshold; and a needle shifting unit (123, 151) that shifts the needle in the first direction according to the shape of the leading edge judged by the shape judging unit. an image acquiring unit (132, 135, 158) that acquires a magnified image of a leading edge of the needle; a needle detecting unit that detects the leading edge of the needle in the magnified image; a shape judging unit that determines a shape of the leading edge of the needle in the magnified image when a differential aggregate calculated from the image of the leading edge of the needle detected by the needle detecting unit is lower than a first threshold; and a needle shifting unit (123, 151) that shifts the needle in the first direction according to the shape of the leading edge judged by the shape judging unit.
Process for thermal cracking of a feedstock of plastic materials, in particular waste materials, comprising the steps of melting the feedstock, conveying melted feedstock in a pyrolysis chamber, where said melted feedstock is heated in a substantially oxygen purged environment to convert it into pyrolysis gases, said process further comprising the steps of: • driving pyrolysis gases from the pyrolysis chamber into a tray reflux column comprising a partial condenser at its upper extremity and valve trays comprising valves covered with caps, • returning pyrolysis gases condensed in the tray reflux column into the pyrolysis chamber, • distilling pyrolysis gases exiting the partial condenser of the tray reflux column, to provide one or more fuel products. • driving pyrolysis gases from the pyrolysis chamber into a tray reflux column comprising a partial condenser at its upper extremity and valve trays comprising valves covered with caps, • returning pyrolysis gases condensed in the tray reflux column into the pyrolysis chamber, • distilling pyrolysis gases exiting the partial condenser of the tray reflux column, to provide one or more fuel products.
A method of cementing a tubing, comprising: attaching a distal downhole tool in the tubing, the distal downhole tool including a first flow-through passage extending through the distal downhole tool and a first vibration tool; attaching a proximal downhole tool in the tubing, the proximal downhole tool including a second flow-through passage extending through the proximal downhole tool and a second vibration tool; generating at least one of pressure pulses, lateral oscillations, and axial oscillations with the second vibration tool by flowing cement in the second flow-through passage; generating at least one of pressure pulses, lateral oscillations, and axial oscillations with the first vibration tool by flowing the cement in the first flow-through passage; flowing cement around a portion of the tubing; providing a backflow path from a point downstream of the second vibration tool toward a wellhead; generating at least one of pressure pulses, lateral oscillations, and axial oscillations with the second vibration tool by flowing fluid through the second flow-through passage while the cement is curing; and flowing the fluid in the backflow path. attaching a distal downhole tool in the tubing, the distal downhole tool including a first flow-through passage extending through the distal downhole tool and a first vibration tool; attaching a proximal downhole tool in the tubing, the proximal downhole tool including a second flow-through passage extending through the proximal downhole tool and a second vibration tool; generating at least one of pressure pulses, lateral oscillations, and axial oscillations with the second vibration tool by flowing cement in the second flow-through passage; generating at least one of pressure pulses, lateral oscillations, and axial oscillations with the first vibration tool by flowing the cement in the first flow-through passage; flowing cement around a portion of the tubing; providing a backflow path from a point downstream of the second vibration tool toward a wellhead; generating at least one of pressure pulses, lateral oscillations, and axial oscillations with the second vibration tool by flowing fluid through the second flow-through passage while the cement is curing; and flowing the fluid in the backflow path.
A method for interference management by a Wi-Fi device (510; 512; 910; 1050; 1300), the method comprising: monitoring (610; 810; 1110), by the Wi-Fi device (510; 512; 910; 1050; 1300), signaling energy on a communication channel in a frequency band associated with the Wi-Fi device (510; 512; 910; 1050; 1300); characterized by comparing (620; 820; 860; 1120) the monitored signaling energy with a known waveform signature corresponding to Long Term Evolution, LTE, operation; identifying (630; 830; 870; 1130) a presence of an LTE interferer on the communication channel in the frequency band associated with the Wi-Fi device (510; 512; 910; 1050; 1300) based on the comparison; correlating a periodicity of the monitored signaling energy with a plurality of predefined patterns associated with LTE uplink and downlink, UL/DL, configurations; and classifying (640; 840; 880; 1140) the LTE interferer as operating in accordance with one of the UL/DL configurations based on the correlation. monitoring (610; 810; 1110), by the Wi-Fi device (510; 512; 910; 1050; 1300), signaling energy on a communication channel in a frequency band associated with the Wi-Fi device (510; 512; 910; 1050; 1300); characterized by comparing (620; 820; 860; 1120) the monitored signaling energy with a known waveform signature corresponding to Long Term Evolution, LTE, operation; identifying (630; 830; 870; 1130) a presence of an LTE interferer on the communication channel in the frequency band associated with the Wi-Fi device (510; 512; 910; 1050; 1300) based on the comparison; correlating a periodicity of the monitored signaling energy with a plurality of predefined patterns associated with LTE uplink and downlink, UL/DL, configurations; and classifying (640; 840; 880; 1140) the LTE interferer as operating in accordance with one of the UL/DL configurations based on the correlation.
A multi-mode Trusted Computing Platform, comprising: a. a Field Programmable Gate Array (FPGA) that includes a high-assurance-compliant root of trust; b. memory containing a high assurance security boot image and at least one lower-security boot image than the HA security boot image; and c. memory containing a HA-associated operating system image and at least one lower-security-associated OS image than the HA-associated OS image; wherein the TCP is configured to execute a multi-stage boot process that, depending on presence of one or more valid external inputs, selects and initiates either a HA TCP computing mode or a lower-assurance computing mode than the HA TCP computing mode; wherein the TCP is configured such that a set of input/output (I/O) devices and applications with which the TCP can interact depends upon the computing mode selected and initiated by the TCP; and wherein the TCP is configured to boot the main processor with a HA mode operating system (OS 1) having functionality and access that is restricted and controlled by the FTCP per HA requirements and is isolated from all LA mode functionality, applications (Apps 2), files systems, and devices; and wherein the FTCP is configured to surround and control all security-sensitive system elements and perform data stream processing. a. a Field Programmable Gate Array (FPGA) that includes a high-assurance-compliant root of trust; b. memory containing a high assurance security boot image and at least one lower-security boot image than the HA security boot image; and c. memory containing a HA-associated operating system image and at least one lower-security-associated OS image than the HA-associated OS image;
A mixture comprising or consisting of a) -3-benzo[1,3]dioxol-5-yl-N,N-diphenyl-2-propenamide, and b) at least one substance selected from the group consisting of: benzyl alcohol, 2-phenylethanol, benzyl benzoate, diethyl succinate, triethyl citrate, triacetin, ethanol, peppermint oil, anethole, propylene glycol, menthol, menthyl methyl ether, menthone glyceryl acetal (FEMA GRAS 3807), menthone glyceryl ketal (FEMA GRAS 3808), menthyl lactate (FEMA GRAS 3748), menthol ethylene glycol carbonate (FEMA GRAS 3805), menthol propylene glycol carbonate (FEMA GRAS 3806), menthyl-N-ethyloxamate (monomethyl succinate (FEMA GRAS 3810), monomenthyl glutarate (FEMA GRAS 4006), menthoxy-1,2-propanediol (FEMA GRAS 3784), menthoxy-2-methyl-1,2-propanediol (FEMA GRAS 3849) or mixtures thereof, wherein the solvent b) is benzyl alcohol, 2-phenylethanol or benzyl benzoate. a) -3-benzo[1,3]dioxol-5-yl-N,N-diphenyl-2-propenamide, and b) at least one substance selected from the group consisting of: benzyl alcohol, 2-phenylethanol, benzyl benzoate, diethyl succinate, triethyl citrate, triacetin, ethanol, peppermint oil, anethole, propylene glycol, menthol, menthyl methyl ether, menthone glyceryl acetal (FEMA GRAS 3807), menthone glyceryl ketal (FEMA GRAS 3808), menthyl lactate (FEMA GRAS 3748), menthol ethylene glycol carbonate (FEMA GRAS 3805), menthol propylene glycol carbonate (FEMA GRAS 3806), menthyl-N-ethyloxamate (monomethyl succinate (FEMA GRAS 3810), monomenthyl glutarate (FEMA GRAS 4006), menthoxy-1,2-propanediol (FEMA GRAS 3784), menthoxy-2-methyl-1,2-propanediol (FEMA GRAS 3849) or mixtures thereof, wherein the solvent b) is benzyl alcohol, 2-phenylethanol or benzyl benzoate. benzyl alcohol, 2-phenylethanol, benzyl benzoate, diethyl succinate, triethyl citrate, triacetin, ethanol, peppermint oil, anethole, propylene glycol, menthol, menthyl methyl ether, menthone glyceryl acetal (FEMA GRAS 3807), menthone glyceryl ketal (FEMA GRAS 3808), menthyl lactate (FEMA GRAS 3748), menthol ethylene glycol carbonate (FEMA GRAS 3805), menthol propylene glycol carbonate (FEMA GRAS 3806), menthyl-N-ethyloxamate (monomethyl succinate (FEMA GRAS 3810), monomenthyl glutarate (FEMA GRAS 4006), menthoxy-1,2-propanediol (FEMA GRAS 3784), menthoxy-2-methyl-1,2-propanediol (FEMA GRAS 3849) or mixtures thereof, wherein the solvent b) is benzyl alcohol, 2-phenylethanol or benzyl benzoate.
A system for indoor farming comprising: at least one growth rack, comprising a plurality of cells; a plurality of farming modules, each farming module configured to be capable of being stored in a cell and capable of carrying a plurality of farming trays, each farming tray suitable for growing a type of plant and comprising: a planting board having a plurality of holes defined thereon, each hole suitable for holding a nutrient associated with a plant type; and a main recess within which the planting board is capable of being fitted and held in place, wherein each farming module is capable of being one of transported to and transported from a cell. at least one growth rack, comprising a plurality of cells; a plurality of farming modules, each farming module configured to be capable of being stored in a cell and capable of carrying a plurality of farming trays, each farming tray suitable for growing a type of plant and comprising: a planting board having a plurality of holes defined thereon, each hole suitable for holding a nutrient associated with a plant type; and a main recess within which the planting board is capable of being fitted and held in place, a planting board having a plurality of holes defined thereon, each hole suitable for holding a nutrient associated with a plant type; and a main recess within which the planting board is capable of being fitted and held in place, wherein each farming module is capable of being one of transported to and transported from a cell.
A method of a device (115, 116, 117, 118) of assigning data capacity to network slices in a mobile communications network, comprising: acquiring identifiers of the network slices managed by the device (115, 116, 117, 118), an indication of types of services being provided in the identified network slices, number of data radio bearers, DRBs, served by each network slice and number of DRBs served by each service type in each network slice; adding the acquired identifiers, indication of types of services being provided, number of DRBs served by each network slice and number of DRBs served by each service type in each network slice in a header of a transport protocol utilized in the mobile communication network; computing a slice weight for the data capacity to be assigned to each network slice as a product of an initial weight indicating the data capacity being assigned to said each network slice and the number of DRBs served by said each network slice divided by a sum, for all network slices managed by the device (115, 116, 117, 118), of the product of the initial weight indicating the data capacity being assigned to an individual network slice and the number of DRBs served by the individual network slice; and assigning the data capacity to said each network slice in accordance with the computed slice weight. acquiring identifiers of the network slices managed by the device (115, 116, 117, 118), an indication of types of services being provided in the identified network slices, number of data radio bearers, DRBs, served by each network slice and number of DRBs served by each service type in each network slice; adding the acquired identifiers, indication of types of services being provided, number of DRBs served by each network slice and number of DRBs served by each service type in each network slice in a header of a transport protocol utilized in the mobile communication network; computing a slice weight for the data capacity to be assigned to each network slice as a product of an initial weight indicating the data capacity being assigned to said each network slice and the number of DRBs served by said each network slice divided by a sum, for all network slices managed by the device (115, 116, 117, 118), of the product of the initial weight indicating the data capacity being assigned to an individual network slice and the number of DRBs served by the individual network slice; and assigning the data capacity to said each network slice in accordance with the computed slice weight.
A polypeptide-based shuttle agent comprising an endosome leakage domain operably linked to a cell penetrating domain, or an ELD operably linked to a histidine-rich domain and a CPD, for use in a clinical or therapeutic in vivo method for increasing the transduction efficiency of an independent polypeptide cargo to the cytosol of target eukaryotic cells, wherein the cargo is a biologically active polypeptide, and wherein the polypeptide-based shuttle agent has a predicted net charge of at least +6 at physiological pH and is used at a concentration sufficient to increase the transduction efficiency of the independent polypeptide cargo to the cytosol of target eukaryotic cell.
A CT detector, comprising: a detector module that includes a plurality of scintillators having gaps therebetween and for constituting two-dimensional discrete pixels; a collimator plate located above one side of said detector module receiving X-rays, for guiding said X-rays to the corresponding two-dimensional discrete pixels; wherein the CT detector further comprises: grids located between said detector module and said collimator plate, for blocking said X-rays emitted to said gaps; characterized in that: a) said grids are provided on said gaps in two intersecting directions, and have a breaking joint in at least one of said directions; or b) said grids are provided on said gaps in one direction and have a breaking joint in said direction. a detector module that includes a plurality of scintillators having gaps therebetween and for constituting two-dimensional discrete pixels; a collimator plate located above one side of said detector module receiving X-rays, for guiding said X-rays to the corresponding two-dimensional discrete pixels; wherein the CT detector further comprises: grids located between said detector module and said collimator plate, for blocking said X-rays emitted to said gaps; characterized in that: a) said grids are provided on said gaps in two intersecting directions, and have a breaking joint in at least one of said directions; or b) said grids are provided on said gaps in one direction and have a breaking joint in said direction. a) said grids are provided on said gaps in two intersecting directions, and have a breaking joint in at least one of said directions; or b) said grids are provided on said gaps in one direction and have a breaking joint in said direction.