mhurhangee/ep-ind-claims huggingface dataset:
Floor cleaning machine with a nozzle comprising a housing with an insertion opening, by way of which a floor cleaning roller can be removed from the housing and reinserted therein, two bearing elements (6a, 6b) fixed to the housing for bearing the floor cleaning roller, two counter bearing elements (8a, 8b) arranged on opposite end faces of the floor cleaning roller and corresponding to the bearing elements (6a, 6b) and an ejection element which can be actuated relative to the floor cleaning roller, wherein in a rest position of the ejection element, the floor cleaning roller is held in the bearing elements (6a, 6b) with its counter bearing elements (8a, 8b), characterised in that the nozzle moreover has a transmission (13, 15) for converting an essentially solely radial movement of the ejection element into an essentially solely axial displacement of the floor cleaning roller and the ejection element can be moved from the rest position into an intermediate position, wherein in the intermediate position of the ejection element, the floor cleaning roller is displaced axially by means of the transmission (13, 15), as a result of which the floor cleaning roller is released axially from one of the bearing elements fixed to the housing.
Timepiece comprising a watch case formed by a middle closed by a back and a crystal, the middle being equipped with horns (4, 4') defining a space (40, 40') for receiving a bracelet strand, said timepiece comprising a sole arranged to rest against the back, the sole, the bracelet strand and the space between the horns (40, 40') comprising shaped elements (41, 42, 43) arranged to cooperate by interlocking when the middle, the sole and the strand are assembled, characterised in that the sole comprises holding studs configured to cooperate with cavities of the back and to ensure assembly by clipping.
Suspended car for a free-range cattle shed, in which the animals can move freely, for the transport of supply material, in particular, litter, having a container to hold the supply material and a distribution system (25, 26) to distribute the supply material at a distribution site, in particular a resting area for the cattle, characterized in that the suspended car comprises a sensor system to detect if an animal is located at the distribution site and a controller is configured in such a way that the supply material can be distributed depending on a measuring signal generated by the sensor system, wherein the controller is configured to not distribute any supply material if an animal is located at the distribution site. the suspended car comprises a sensor system to detect if an animal is located at the distribution site and a controller is configured in such a way that the supply material can be distributed depending on a measuring signal generated by the sensor system, wherein the controller is configured to not distribute any supply material if an animal is located at the distribution site.
A cosmetic cleaning agent comprising A a microemulsion comprising (a) at least one alkyl (oligo)glycoside (b) at least one cosurfactant different from (a) (c) at least one non-water-soluble organic oil component (d) at least one wax (e) and water B anionic surfactants C cationic polymers D optionally further surfactants E optionally cosmetic additives F water. A a microemulsion comprising (a) at least one alkyl (oligo)glycoside (b) at least one cosurfactant different from (a) (c) at least one non-water-soluble organic oil component (d) at least one wax (e) and water (a) at least one alkyl (oligo)glycoside (b) at least one cosurfactant different from (a) (c) at least one non-water-soluble organic oil component (d) at least one wax (e) and water B anionic surfactants C cationic polymers D optionally further surfactants E optionally cosmetic additives F water.
A method performed on at least one computer processor, said method comprising: executing an application in a first execution path to a first function, said first function being part of said application; identifying said first execution path as meeting conditions for tracing and assigning a first identifier for said first execution path; collecting first trace data while executing said first function and associating said first identifier to said first trace data; executing said application to a first instance of a second function and determining that said first instance of said second function is part of said first execution path and collecting second trace data while executing said first instance of said second function and associating said first identifier to said second trace data; and transmitting said first trace data and said second trace data; executing said application to a second instance of said second function and determining that said second instance of said second function is not part of said first execution path and not collecting trace data while executing said second instance of said second function; wrapping said first function with a wrapped tracer function and storing said first identifier in said wrapped tracer function; and determining that said first instance of said second function is part of said first execution path by presence of said wrapped tracer function. executing an application in a first execution path to a first function, said first function being part of said application; identifying said first execution path as meeting conditions for tracing and assigning a first identifier for said first execution path; collecting first trace data while executing said first function and associating said first identifier to said first trace data; executing said application to a first instance of a second function and determining that said first instance of said second function is part of said first execution path and collecting second trace data while executing said first instance of said second function and associating said first identifier to said second trace data; and transmitting said first trace data and said second trace data; executing said application to a second instance of said second function and determining that said second instance of said second function is not part of said first execution path and not collecting trace data while executing said second instance of said second function; wrapping said first function with a wrapped tracer function and storing said first identifier in said wrapped tracer function; and determining that said first instance of said second function is part of said first execution path by presence of said wrapped tracer function.
A steel sheet comprising, as a chemical composition, by mass%: C: 0.05% to 0.30%; Si: 0.2% to 2.0%; Mn: 2.0% to 4.0%; Al: 0.001% to 2.000%; P: 0.100% or less; S: 0.010% or less; N: 0.010% or less; Ti: 0% to 0.100%; Nb: 0% to 0.100%; V: 0% to 0.100%; Cu: 0% to 1.00%; Ni: 0% to 1.00%; Mo: 0% to 1.00%; Cr: 0% to 1.00%; W: 0% to 0.005%; Ca: 0% to 0.005%; Mg: 0% to 0.005%; a rare earth element: 0% to 0.010%; B: 0% to 0.0030%; and a remainder of Fe and impurities, wherein a metallographic structure contains, by area ratio, 95% or more of a hard structure and 0% to 5% of residual austenite, in a cross section in a thickness direction, by mass%, C1/C2 which is a ratio of an upper limit C1 of a Mn content to a lower limit C2 of the Mn content is 1.5 or less, and a bake-hardening amount BH is 150 MPa or more, wherein the metallographic structure, C1/C2 and the bake-hardening amount BH are determined in accordance with the description. C: 0.05% to 0.30%; Si: 0.2% to 2.0%; Mn: 2.0% to 4.0%; Al: 0.001% to 2.000%; P: 0.100% or less; S: 0.010% or less; N: 0.010% or less; Ti: 0% to 0.100%; Nb: 0% to 0.100%; V: 0% to 0.100%; Cu: 0% to 1.00%; Ni: 0% to 1.00%; Mo: 0% to 1.00%; Cr: 0% to 1.00%; W: 0% to 0.005%; Ca: 0% to 0.005%; Mg: 0% to 0.005%; a rare earth element: 0% to 0.010%; B: 0% to 0.0030%; and a remainder of Fe and impurities, wherein a metallographic structure contains, by area ratio, 95% or more of a hard structure and 0% to 5% of residual austenite, in a cross section in a thickness direction, by mass%, C1/C2 which is a ratio of an upper limit C1 of a Mn content to a lower limit C2 of the Mn content is 1.5 or less, and a bake-hardening amount BH is 150 MPa or more,
An attachment device (302, 502, 602, 702, 802) configured to be installed in a structure, wherein the attachment device (302, 502, 602, 702, 802) comprises: a first cup-shaped portion and a second cup-shaped portion, wherein the first cup-shaped portion comprises a first flange and the second cup-shaped portion comprises a second flange, wherein the first cup-shaped portion and the second cup-shaped portion are separable, wherein the first flange and the second flange are coupled together when the attachment device (302, 502, 602, 702, 802) is installed in the structure, wherein the first cup-shaped portion further comprises a third flange and the second cup-shaped portion further comprises a fourth flange, the third and fourth flanges being configured to engage with opposing outer surfaces of the structure when the attachment device is installed in the structure, wherein the third and fourth flanges extend at 90 degrees to a longitudinal axis of the attachment device and are circumferentially continuous; and an attachment fitting disposed through the first and second flanges, the attachment fitting configured to mate with an attachment fitting of a component for coupling the component to the structure in which the attachment device (302, 502, 602, 702, 802) is installed, wherein the top of the attachment fitting is flush with the top of the third flange of the first cup-shaped portion such that the attachment fitting preserves a flat nature of the structure when the attachment device is installed. a first cup-shaped portion and a second cup-shaped portion, wherein the first cup-shaped portion comprises a first flange and the second cup-shaped portion comprises a second flange, wherein the first cup-shaped portion and the second cup-shaped portion are separable, wherein the first flange and the second flange are coupled together when the attachment device (302, 502, 602, 702, 802) is installed in the structure, wherein the first cup-shaped portion further comprises a third flange and the second cup-shaped portion further comprises a fourth flange, the third and fourth flanges being configured to engage with opposing outer surfaces of the structure when the attachment device is installed in the structure, wherein the third and fourth flanges extend at 90 degrees to a longitudinal axis of the attachment device and are circumferentially continuous; and an attachment fitting disposed through the first and second flanges, the attachment fitting configured to mate with an attachment fitting of a component for coupling the component to the structure in which the attachment device (302, 502, 602, 702, 802) is installed, wherein the top of the attachment fitting is flush with the top of the third flange of the first cup-shaped portion such that the attachment fitting preserves a flat nature of the structure when the attachment device is installed.
Method for laser welding one or more workpieces made of press-hardenable steel, in particular manganese-boron steel, in a butt joint, wherein the workpiece or workpieces (1, 2; 1, 2') have a thickness of between 0.5 and 1.8 mm, and/or a jump in thickness (d) of between 0.2 and 0.4 mm occurs at the butt joint, and wherein the laser welding is carried out with the feed of filler wire into the molten bath, which is generated by at least one laser beam, the molten bath being generated only by the at least one laser beam, wherein the filler wire contains at least one alloy element from the group comprising manganese, chromium, molybdenum, silicon and/or nickel, which alloy element promotes the formation of austenite in the molten bath generated by the laser beam, said at least one alloy element is present in the filler wire in a mass percentage greater by at least 0.1 wt.% than in the press-hardenable steel of the workpiece or workpieces (1, 2; 1, 2'), and wherein the workpiece or workpieces (1, 2; 1, 2') used is/are non-coated or partially de-coated by ablation of its/their coating before the laser welding in the peripheral region along the abutting edges to be welded together, characterised in that the filler wire has the following composition: 0.05 to 0.15 wt.% C, 0.5 to 2.0 wt.% Si, 1.0 to 2.5 wt.% Mn, 0.5 to 2.0 wt.% Cr + Mo, and 1.0 to 4.0 wt.% Ni, remainder Fe and unavoidable impurities, wherein the filler wire has a carbon mass percentage which is lower by at least 0.1 wt.% than the press-hardenable steel of the workpiece or workpieces (1, 2; 1, 2'). 0.05 to 0.15 wt.% C, 0.5 to 2.0 wt.% Si, 1.0 to 2.5 wt.% Mn, 0.5 to 2.0 wt.% Cr + Mo, and 1.0 to 4.0 wt.% Ni, remainder Fe and unavoidable impurities,
A method for applying an image on a thermoformable substrate comprising: a) modifying a first surface energy of the thermoformable substrate with a surface energy modification device; b) depositing a background layer on a portion of the substrate with at least one full width printhead array, the background layer comprising at least one stretchable ink, wherein the modified first surface energy enhances wetting and adhesion of the at least one stretchable ink; c) curing the background layer to form a first printed substrate with at least one radiation curing device; d) modifying a second surface energy of the first printed substrate with the surface energy modification device; e) depositing a foreground layer on the background layer with at least one full width printhead array, the foreground layer comprising at least one stretchable ink, wherein the modified second surface energy enhances wetting and adhesion of the at least one stretchable ink; and, f) curing the foreground layer to form a second printed substrate with at least one radiation curing device. a) modifying a first surface energy of the thermoformable substrate with a surface energy modification device; b) depositing a background layer on a portion of the substrate with at least one full width printhead array, the background layer comprising at least one stretchable ink, wherein the modified first surface energy enhances wetting and adhesion of the at least one stretchable ink; c) curing the background layer to form a first printed substrate with at least one radiation curing device; d) modifying a second surface energy of the first printed substrate with the surface energy modification device; e) depositing a foreground layer on the background layer with at least one full width printhead array, the foreground layer comprising at least one stretchable ink, wherein the modified second surface energy enhances wetting and adhesion of the at least one stretchable ink; and, f) curing the foreground layer to form a second printed substrate with at least one radiation curing device.
A method for generating a dynamic magnetic resonance, MR, image associated with at least one object, comprising: acquiring radial data based on a golden-angle procedure, wherein the radial data comprises a plurality of radial lines; sorting the acquired radial data into at least one time-series having a different arbitrary temporal resolution, for each temporal frame, using a specific number of radial lines for each temporal frame, wherein the arbitrary temporal resolution is based on a particular number of consecutive ones of the radial lines; and using a computer arrangement, generating the dynamic MR image for each temporal frame using a combined compressed sensing procedure and parallel imaging procedure based on the sorted data. acquiring radial data based on a golden-angle procedure, wherein the radial data comprises a plurality of radial lines; sorting the acquired radial data into at least one time-series having a different arbitrary temporal resolution, for each temporal frame, using a specific number of radial lines for each temporal frame, wherein the arbitrary temporal resolution is based on a particular number of consecutive ones of the radial lines; and using a computer arrangement, generating the dynamic MR image for each temporal frame using a combined compressed sensing procedure and parallel imaging procedure based on the sorted data.
A method for disrupting suspended biomass material comprising the steps of: - providing a suspension of biomass material in a first vessel, said suspension having a dry cell weight being comprised between 0.1 % and 15% (w/w); - pressurizing said suspension to a pressure being comprised between 7500 kPa and 450000 kPa by using a first high-pressure pump; - providing a pressurized gas disruption agent and/or a pressurized liquid disruption agent in a second vessel; - pressurizing said gas and/or liquid disruption agent to a pressure being comprised between 7500 kPa and 450000 kPa by using a second high-pressure pump, said pressure being higher than said pressure; - injecting a stream of said pressurized disruption agent into a stream of said pressurized suspension of biomass material by using a sparger system, thereby bringing said two streams together and forming a micro-emulsion; - passing said micro-emulsion sequentially through a hydrodynamic agitation system and a relief valve. - providing a suspension of biomass material in a first vessel, said suspension having a dry cell weight being comprised between 0.1 % and 15% (w/w); - pressurizing said suspension to a pressure being comprised between 7500 kPa and 450000 kPa by using a first high-pressure pump; - providing a pressurized gas disruption agent and/or a pressurized liquid disruption agent in a second vessel; - pressurizing said gas and/or liquid disruption agent to a pressure being comprised between 7500 kPa and 450000 kPa by using a second high-pressure pump, said pressure being higher than said pressure; - injecting a stream of said pressurized disruption agent into a stream of said pressurized suspension of biomass material by using a sparger system, thereby bringing said two streams together and forming a micro-emulsion; - passing said micro-emulsion sequentially through a hydrodynamic agitation system and a relief valve.
Method for repairing a fan casing the inner surface of which is subject to damage, where the said method includes a step of attaching a reinforcing member to the fan casing, where the said reinforcing member is attached to the outer surface of the fan casing, opposite the location of the damage.
A support for the head of a patient comprising: a tray having a top surface and a bottom surface, an upper edge, and lower edge, and two opposing side edges, said tray adapted for support on an underlying surface; a plurality of members, each of said members projecting from a distal end below said top surface, through an engagement point on said tray, to a proximal end, said proximal end positioned a distance above said top surface; a cushion; said cushion having a bottom wall and two sidewalls, and an interior surface adapted to engage the face of a human; said cushion having an exterior surface; and means (18, 20) to engage said exterior surface of said cushion with said proximal end of said members thereby positioning said cushion in an engaged position, said distance above said top surface; a slot communicating from said interior surface to said exterior surface of said cushion; said slot positioned to align with a patient's eyes when said patient's face is engaged with said cushion, and said eyes being viewable through said slot when said patient's face is engaged with said cushion and said cushion is in said engaged position said distance above said tray; an aperture formed in said top surface of said tray; a mirrored surface, said mirrored surface engaged to a mount extending from said tray; said mirrored surface positionable at a reflecting position below said top surface of said tray; and said eyes being viewable in said mirrored surface, characterised by a viewing aperture communicating through said mirrored surface; a video camera positionable to capture electronic images of said patient's eyes through said viewing aperture in said mirrored surface from a position below said mirrored surface; and whereby both said mirrored surface, and a video display operatively engaged with said video camera can concurrently display images of a patient's eyes.
Integrated circuit including at least one non-volatile memory accessible by sectors, one microprocessor linked to said non-volatile memory and configured to trigger possible actions to counter, limit or prevent an attack and at least a detector able to detect anomalies in the operation of the integrated circuit, characterised in that said detector is configured to discover when a threshold number of bad sectors has been exceeded in said non-volatile memory, said detector being further configured to signal this excess, corresponding to observed destructions in the non-volatile memory greater than an average degradation, said observed destructions being thus abnormal, to the microprocessor for said microprocessor to trigger possible actions to counter, limit or prevent an attack on the non-volatile memory.
An alarming and unlocking device, installed in a passenger carriage and comprising: a control switch, the control switch being provided with an alarming position and an unlocking position; a communication device, the control switch being in signal connection with the communication device; when the control switch is located at the alarming position, the communication device being started to receive and send a voice signal; a locking device, the locking device being installed on a door so as to control the door to lock or unlock, wherein the control switch is in signal connection with the locking device; when the control switch is located at the unlocking position, the locking device performs an unlocking operation. a control switch, the control switch being provided with an alarming position and an unlocking position; a communication device, the control switch being in signal connection with the communication device; when the control switch is located at the alarming position, the communication device being started to receive and send a voice signal; a locking device, the locking device being installed on a door so as to control the door to lock or unlock, wherein the control switch is in signal connection with the locking device; when the control switch is located at the unlocking position, the locking device performs an unlocking operation.