mhurhangee/ep-ind-claims huggingface dataset:
A computer software product comprising a non-transitory tangible medium readable by a processor, the medium having stored thereon a set of instructions for operating an electrophotographic printing system, the system including a charge roller disposed to charge an imaging surface on which a latent image for printing is formed, the instructions comprising a set of instructions which, when loaded into a memory and executed by the processor, causes closed-loop control of a selectable non-contact distance between the charge roller and the imaging surface; wherein the closed loop control comprises: a streamer intensity function to monitor and evaluate characteristics of streamer discharge between the surface of the charge roller and the imaging surface, the streamer discharge characteristics including peak-to-peak values of a current range and/or a ratio of a peak current to an average current; and implementing the selectable non-contact distance between the charge roller and the imaging surface, during printing operation of the printing system, based on the streamer discharge characteristics, via moving a position of the charge roller relative to the imaging surface. a streamer intensity function to monitor and evaluate characteristics of streamer discharge between the surface of the charge roller and the imaging surface, the streamer discharge characteristics including peak-to-peak values of a current range and/or a ratio of a peak current to an average current; and implementing the selectable non-contact distance between the charge roller and the imaging surface, during printing operation of the printing system, based on the streamer discharge characteristics, via moving a position of the charge roller relative to the imaging surface.
Device for the controlled orientation and/or controlled rotation of containers, comprising a conveying element for moving the containers on an orientation and conveying section between a container intake point (1.1) and a container discharge point (1.2) in a direction of conveyance, comprising a plurality of container holders (4.1 - 4.4) following one after the other in the direction of conveyance, the rotation of which is controlled by drives so as to orientate the containers by rotating or pivoting about their container axis, characterised in that the container holders (4.1 - 4.4) form at least two groups of container holders, that each group of container holders comprises at least two container holders (4.1 - 4.4), and the container holders (4.1 - 4.4) form at least two files following one another in the direction of conveyance and preferably identical, in which of each group a container holder (4.1 - 4.4) is provided, and that for each group of container holders (4.1 - 4.4) an independent rotating or pivoting drive (7, 7a) is provided, by which container holders (4.1 - 4.4) of the group concerned are rotated in common in a controlled manner.
An assembly comprising: a framework that includes a frame wall having an outer side and an opposite reverse side, the framework defining a housing cavity; a mounted component that is mounted on the frame wall such as to be exposed on the outer side of the frame wall; a metal connector that is held fast by the mounted component and that projects from the mounted component transversely through at least part of the frame wall; a metal retainer that is located on the reverse side of the frame wall within housing cavity such that part of the frame wall is sandwiched between the mounted component and the metal retainer, the metal retainer being of sheet metal construction oriented such that a thickness dimension of the metal retainer is transverse to the frame wall at the mounted component; electronics components housed in the housing cavity for cooperation with the mounted component; and a solder joint that fastens the metal retainer to the metal connector, thereby retaining the mounted component on the frame wall, wherein the mounted component and the metal retainer fastened thereto are displaceably mounted on the frame wall to allow travel of the mounted component in a direction transverse to the frame wall, the extent of travel of the mounted component away from the frame wall being limited by abutment of the metal retainer against the frame wall on the reverse side thereof, and wherein the metal retainer has one or more connection cavities in which part of the metal connector is received, the solder joint being located at least in part in the one or more cavities. a framework that includes a frame wall having an outer side and an opposite reverse side, the framework defining a housing cavity; a mounted component that is mounted on the frame wall such as to be exposed on the outer side of the frame wall; a metal connector that is held fast by the mounted component and that projects from the mounted component transversely through at least part of the frame wall; a metal retainer that is located on the reverse side of the frame wall within housing cavity such that part of the frame wall is sandwiched between the mounted component and the metal retainer, the metal retainer being of sheet metal construction oriented such that a thickness dimension of the metal retainer is transverse to the frame wall at the mounted component; electronics components housed in the housing cavity for cooperation with the mounted component; and a solder joint that fastens the metal retainer to the metal connector, thereby retaining the mounted component on the frame wall, wherein the mounted component and the metal retainer fastened thereto are displaceably mounted on the frame wall to allow travel of the mounted component in a direction transverse to the frame wall, the extent of travel of the mounted component away from the frame wall being limited by abutment of the metal retainer against the frame wall on the reverse side thereof, and wherein the metal retainer has one or more connection cavities in which part of the metal connector is received, the solder joint being located at least in part in the one or more cavities.
A method for obtaining olive oil and at least one polyphenol concentrated extract and a functional olive flour ingredient characterised in that it comprises the stages of: - Separating the stone and skin from the olive pulp, carried out by means of a refining machine equipped with a drive shaft rotary sieve having a variable pore diameter of 2-6 mm to allow the olive paste to pass, obtaining the whole stone on the one hand and, on the other, an olive paste; - Electric pulsing of the olive paste with an electric field voltage of 1-3 kV/cm, frequency of 114-255 Hz and 2-10 pulses of 50-90 microseconds; - Dehydrating the pulsed olive paste up to a humidity of < 30% in a continuous vacuum drying machine under the following conditions: vacuum < 80 mbar of absolute pressure, temperature < 41°C and 20-100 kg of evaporated water/h; - Separating the oil from the olive paste by centrifugation in a decanter with the necessary adjustments to treat de-stoned dehydrated pulp and obtainment of virgin olive oil; - Dehydrating the degreased pulp, after separating the oil, up to a humidity of less than 10% applying vacuum conditions < 200 mbar of absolute pressure, temperature < 60°C and 20-100 kg of evaporated water/h; - Applying supercritical fluids CO 2 with or without modifier to the degreased and dehydrated olive paste, under agitation, pressure 150-250 Bar, temperature 40°C and time 60-240 min conditions; and - Obtaining, on the one hand, a series of extracts squalene, oleuropein, hydroxytyrosol, verbascoside, tyrosol, tocopherol, oleocanthal and, on the other hand, olive flour with a high fibre, protein and polyphenol antioxidant content. - Separating the stone and skin from the olive pulp, carried out by means of a refining machine equipped with a drive shaft rotary sieve having a variable pore diameter of 2-6 mm to allow the olive paste to pass, obtaining the whole stone on the one hand and, on the other, an olive paste; - Electric pulsing of the olive paste with an electric field voltage of 1-3 kV/cm, frequency of 114-255 Hz and 2-10 pulses of 50-90 microseconds; - Dehydrating the pulsed olive paste up to a humidity of < 30% in a continuous vacuum drying machine under the following conditions: vacuum < 80 mbar of absolute pressure, temperature < 41°C and 20-100 kg of evaporated water/h; - Separating the oil from the olive paste by centrifugation in a decanter with the necessary adjustments to treat de-stoned dehydrated pulp and obtainment of virgin olive oil; - Dehydrating the degreased pulp, after separating the oil, up to a humidity of less than 10% applying vacuum conditions < 200 mbar of absolute pressure, temperature < 60°C and 20-100 kg of evaporated water/h; - Applying supercritical fluids CO 2 with or without modifier to the degreased and dehydrated olive paste, under agitation, pressure 150-250 Bar, temperature 40°C and time 60-240 min conditions; and - Obtaining, on the one hand, a series of extracts squalene, oleuropein, hydroxytyrosol, verbascoside, tyrosol, tocopherol, oleocanthal and, on the other hand, olive flour with a high fibre, protein and polyphenol antioxidant content.
Automated method for providing functionalities of at least one mobile unit for carrying out at least one required function of a request unit separate from the mobile unit, - wherein the required function is provided in the mobile unit, - wherein the function is carried out based on the context, - wherein a context rule system is provided in the mobile unit for carrying out the function, - wherein the function is carried out in the mobile unit if one or more rules of the context rule system are satisfied, and - wherein the mobile unit is an edge node of an edge cloud and the request unit is a part of the edge cloud. - wherein the required function is provided in the mobile unit, - wherein the function is carried out based on the context, - wherein a context rule system is provided in the mobile unit for carrying out the function, - wherein the function is carried out in the mobile unit if one or more rules of the context rule system are satisfied, and - wherein the mobile unit is an edge node of an edge cloud and the request unit is a part of the edge cloud.
Air start unit for starting and servicing jet engines of aircraft and other flying machines, with at least one compressor for producing compressed air and a voltage supply for supplying electrical power consumers, wherein the compressor is driven by at least one electric motor, characterized in that the air start unit contains at least one high voltage battery, and in that the electrical energy for operating the electric motor is supplied from the at least one high voltage battery, wherein the high voltage of the high voltage battery is above 120 V.
A method of metathesizing a feedstock comprising: providing a feedstock comprising a natural oil and peroxide poisons, the feedstock having a starting peroxide value; chemically treating the feedstock with a metal alkoxide, the chemically treating being conducted at a temperature between 25°C and 125°C, to react with the peroxide poisons and reduce the starting peroxide value of the feedstock by 80% or more; and following chemically treating, combining a metathesis catalyst with the feedstock to metathesize the feedstock under conditions sufficient to metathesize the feedstock to form a metathesis product comprising a new olefinic compound, wherein the metal alkoxide comprises a metal selected from the group consisting of aluminum, titanium, zirconium, copper, iron, cerium, and silicon. providing a feedstock comprising a natural oil and peroxide poisons, the feedstock having a starting peroxide value; chemically treating the feedstock with a metal alkoxide, the chemically treating being conducted at a temperature between 25°C and 125°C, to react with the peroxide poisons and reduce the starting peroxide value of the feedstock by 80% or more; and following chemically treating, combining a metathesis catalyst with the feedstock to metathesize the feedstock under conditions sufficient to metathesize the feedstock to form a metathesis product comprising a new olefinic compound, wherein the metal alkoxide comprises a metal selected from the group consisting of aluminum, titanium, zirconium, copper, iron, cerium, and silicon. chemically treating the feedstock with a metal alkoxide, the chemically treating being conducted at a temperature between 25°C and 125°C, to react with the peroxide poisons and reduce the starting peroxide value of the feedstock by 80% or more; and following chemically treating, combining a metathesis catalyst with the feedstock to metathesize the feedstock under conditions sufficient to metathesize the feedstock to form a metathesis product comprising a new olefinic compound, wherein the metal alkoxide comprises a metal selected from the group consisting of aluminum, titanium, zirconium, copper, iron, cerium, and silicon.
Device for protecting at least one section of a locking member movable between a resting position and a locking position, comprising - a support structure; - a plurality of plate-shaped wear-resistant elements attached to said support structure; - wherein said wear-resistant elements extend generally in the direction coinciding with the locking member, and wherein - said wear-resistant elements comprise carbide material - wherein said wear-resistant elements are arranged to form a cavity (28, 108) with at least one opening, in which cavity the at least one section of the locking member may be positioned. - a support structure; - a plurality of plate-shaped wear-resistant elements attached to said support structure; - wherein said wear-resistant elements extend generally in the direction coinciding with the locking member, and wherein - said wear-resistant elements comprise carbide material - wherein said wear-resistant elements are arranged to form a cavity (28, 108) with at least one opening, in which cavity the at least one section of the locking member may be positioned.
A method of encoding three-dimensional, 3D, data, the method comprising: generating a geometry image indicating position information of points, a texture image indicating color information of the points, and an occupancy map indicating occupancy information of the position information of the points in the geometry image, by projecting the points included in the 3D data onto a two-dimensional, 2D, plane; characterized in that the method further comprises: generating a filtered occupancy map by performing filtering on the occupancy map; performing image padding on the geometry image and the texture image, based on the filtered occupancy map; and generating and outputting a bitstream including a padded geometry image, a padded texture image, a downsampled occupancy map, and information about the filtering performed on the occupancy map. generating a geometry image indicating position information of points, a texture image indicating color information of the points, and an occupancy map indicating occupancy information of the position information of the points in the geometry image, by projecting the points included in the 3D data onto a two-dimensional, 2D, plane; characterized in that the method further comprises: generating a filtered occupancy map by performing filtering on the occupancy map; performing image padding on the geometry image and the texture image, based on the filtered occupancy map; and generating and outputting a bitstream including a padded geometry image, a padded texture image, a downsampled occupancy map, and information about the filtering performed on the occupancy map. generating a filtered occupancy map by performing filtering on the occupancy map; performing image padding on the geometry image and the texture image, based on the filtered occupancy map; and generating and outputting a bitstream including a padded geometry image, a padded texture image, a downsampled occupancy map, and information about the filtering performed on the occupancy map.
Dust collecting device for a hand-operated power tool, in particular for a saw or a grinding machine, which has a connection device with a base body and a dust inlet provided at or on the base body for connection to a machine dust outlet of the hand-operated power tool, so that the machine dust outlet communicates with a dust inlet of the dust collecting device and particles flowing in a particle flow out of the machine dust outlet are able to flow into a dust collection chamber of a dust container of the dust collecting device, wherein the dust inlet is provided on a cover, and wherein the cover, relative to the base body, is adjustable between an open position releasing an inlet orifice of the dust collecting device provided for emptying the dust collection chamber, and a closed position closing the inlet orifice, characterised in that there is provided at the dust inlet a valve body, in particular a check valve, for closing the dust inlet, in particular when the machine dust outlet is removed from the dust inlet.
A method of making retroreflective sheeting comprising: providing a tool comprising a cube corner microstructured surface with a channel selected from a primary groove channel a structured channel a cube cavity channe,, and combinations thereof; contacting a moldable resin with the tool such that a direction of advancement of at least one of the resin and tool is substantially parallel to the channel; solidifying the resin forming a retroreflective sheet having a surface comprising cube corner elements; and removing the sheet from the tool. providing a tool comprising a cube corner microstructured surface with a channel selected from a primary groove channel a structured channel a cube cavity channe,, and combinations thereof; contacting a moldable resin with the tool such that a direction of advancement of at least one of the resin and tool is substantially parallel to the channel; solidifying the resin forming a retroreflective sheet having a surface comprising cube corner elements; and removing the sheet from the tool.
A turbine vane assembly for a gas turbine engine comprising: an airfoil rotatable about a first axis transverse to an engine longitudinal axis, the airfoil including an endwall; and at least one protrusion disposed on the endwall configured for obstructing flow through a gap between the endwall and a static structure (44, 50) of the gas turbine engine; characterised by further including: a cooling slot defined within the endwall for communicating cooling airflow into the gap between the endwall and the static structure (48, 50) of the gas turbine engine, the cooling slot being defined along a leading edge region of the endwall, the at least one protrusion being arranged downstream of the cooling slot. an airfoil rotatable about a first axis transverse to an engine longitudinal axis, the airfoil including an endwall; and at least one protrusion disposed on the endwall configured for obstructing flow through a gap between the endwall and a static structure (44, 50) of the gas turbine engine; characterised by further including: a cooling slot defined within the endwall for communicating cooling airflow into the gap between the endwall and the static structure (48, 50) of the gas turbine engine, the cooling slot being defined along a leading edge region of the endwall, the at least one protrusion being arranged downstream of the cooling slot.
A system for creating a virtual bite line in connection with an article of footwear, the system comprising: a marking mechanism that applies conditionally visible indicia to a surface of a shoe upper at an interface of the shoe upper and a representation of a corresponding bottom unit when the shoe upper and the representation of the corresponding bottom unit are temporarily joined with a predetermined amount of force, wherein the conditionally visible indicia are detectable only under predetermined lighting conditions; a first light source that projects light across at least a portion of the marked shoe upper, the projected light intersecting the conditionally visible indicia at at least one point to create an intersection; and at least one camera that detects the intersection between the projected light and the conditionally visible indicia.
A load controller comprising: a communication circuit configured to communicate messages configured to control an electrical load; and a control circuit configured to: receive a first target value for controlling a first parameter of the electrical load over a first fade time; receive a second target value for controlling a second parameter of the electrical load over a second fade time that begins during the first fade time; identify a first remaining fade time that exists during the first fade time when the second target value is received; determine that the second fade time is a shorter one of the first remaining fade time and the second fade time; determine an updated target value for controlling the first parameter over the second fade time; and transmit, via the communication circuit, the updated target value for controlling the first parameter and the second target value for controlling the second parameter over the second fade time. a communication circuit configured to communicate messages configured to control an electrical load; and a control circuit configured to: receive a first target value for controlling a first parameter of the electrical load over a first fade time; receive a second target value for controlling a second parameter of the electrical load over a second fade time that begins during the first fade time; identify a first remaining fade time that exists during the first fade time when the second target value is received; determine that the second fade time is a shorter one of the first remaining fade time and the second fade time; determine an updated target value for controlling the first parameter over the second fade time; and transmit, via the communication circuit, the updated target value for controlling the first parameter and the second target value for controlling the second parameter over the second fade time. receive a first target value for controlling a first parameter of the electrical load over a first fade time; receive a second target value for controlling a second parameter of the electrical load over a second fade time that begins during the first fade time; identify a first remaining fade time that exists during the first fade time when the second target value is received; determine that the second fade time is a shorter one of the first remaining fade time and the second fade time; determine an updated target value for controlling the first parameter over the second fade time; and transmit, via the communication circuit, the updated target value for controlling the first parameter and the second target value for controlling the second parameter over the second fade time.