mhurhangee/ep-ind-claims huggingface dataset:
A method of manufacturing an article comprising: inserting at least one needle into a polymeric component, said polymeric component including multiple layers (30, 32, 33) and having a first surface, a second surface, and a thickness between the first surface and the second surface, so that the at least one needle does not penetrate entirely through the polymeric component; injecting ink into the polymeric component, wherein said injecting the ink is into at least a portion of the polymeric component through the at least one needle; piercing a predetermined pattern in the polymeric component; wherein the injecting is through the first surface and at a predetermined depth less than the thickness so that the ink is embedded in at least one of the layers as a graphical image in the portion of the polymeric component and is at least partially between the first surface and the second surface, wherein the inserting the at least one needle and the injecting ink through the at least one needle are after the piercing the predetermined pattern; and wherein the inserting the at least one needle is within the pierced, predetermined pattern. inserting at least one needle into a polymeric component, said polymeric component including multiple layers (30, 32, 33) and having a first surface, a second surface, and a thickness between the first surface and the second surface, so that the at least one needle does not penetrate entirely through the polymeric component; injecting ink into the polymeric component, wherein said injecting the ink is into at least a portion of the polymeric component through the at least one needle; piercing a predetermined pattern in the polymeric component; wherein the injecting is through the first surface and at a predetermined depth less than the thickness so that the ink is embedded in at least one of the layers as a graphical image in the portion of the polymeric component and is at least partially between the first surface and the second surface, wherein the inserting the at least one needle and the injecting ink through the at least one needle are after the piercing the predetermined pattern; and wherein the inserting the at least one needle is within the pierced, predetermined pattern.
An imaging control apparatus comprising: an image acquisition unit that acquires a first breast image by imaging a breast, which is being compressed, by first imaging; a three-dimensional information derivation unit that derives three-dimensional information of a mammary gland included in the first breast image; and an imaging mode setting unit that sets an imaging mode for second imaging of the breast based on the three-dimensional information, wherein the image acquisition unit acquires a second breast image by imaging the breast without releasing a state during the first imaging where the breast is compressed by the second imaging based on the set imaging mode, wherein the first imaging is imaging of irradiating the breast with a lower dose of radiation than the second imaging, and wherein the imaging mode setting unit sets, as the imaging mode, any of simple two-dimensional imaging, tomosynthesis imaging, and combination imaging of simple imaging and tomosynthesis imaging based on the three-dimensional information. an image acquisition unit that acquires a first breast image by imaging a breast, which is being compressed, by first imaging; a three-dimensional information derivation unit that derives three-dimensional information of a mammary gland included in the first breast image; and an imaging mode setting unit that sets an imaging mode for second imaging of the breast based on the three-dimensional information, wherein the image acquisition unit acquires a second breast image by imaging the breast without releasing a state during the first imaging where the breast is compressed by the second imaging based on the set imaging mode, wherein the first imaging is imaging of irradiating the breast with a lower dose of radiation than the second imaging, and wherein the imaging mode setting unit sets, as the imaging mode, any of simple two-dimensional imaging, tomosynthesis imaging, and combination imaging of simple imaging and tomosynthesis imaging based on the three-dimensional information.
A panel structure that is impermeable to gases, particularly for the insulation of buildings, the panel structure comprising: a first layer composed of polypropylene non-woven fabric or polyethylene film or PP film (optionally treated with silicone) or talc or sand, the first layer being hot-scarfable, and a second layer that is composed of a first elastoplastomeric bituminous mixture with adhesive properties, and a third layer that is constituted by LDPE or LLDPE or HDPE or PP or PA or EAA or EVA or EVOH or PET μm, which is made by means of extrusion, and a fourth layer that is constituted by paper with a grammage that is comprised between g/m 2 with rough or crown effect, and a fifth layer that is constituted by PE or PP or PET μm which is made by means of extrusion and which functions as an adhesive layer, and a sixth layer that is constituted by aluminium μm, and by a seventh layer that is constituted by PE or PP or PET μm and is made by means of extrusion or which is constituted by lacquering, and an eighth layer that is constituted by a PIR/PUR panel. a first layer composed of polypropylene non-woven fabric or polyethylene film or PP film (optionally treated with silicone) or talc or sand, the first layer being hot-scarfable, and a second layer that is composed of a first elastoplastomeric bituminous mixture with adhesive properties, and a third layer that is constituted by LDPE or LLDPE or HDPE or PP or PA or EAA or EVA or EVOH or PET μm, which is made by means of extrusion, and a fourth layer that is constituted by paper with a grammage that is comprised between g/m 2 with rough or crown effect, and a fifth layer that is constituted by PE or PP or PET μm which is made by means of extrusion and which functions as an adhesive layer, and a sixth layer that is constituted by aluminium μm, and by a seventh layer that is constituted by PE or PP or PET μm and is made by means of extrusion or which is constituted by lacquering, and an eighth layer that is constituted by a PIR/PUR panel.
A method of transporting a backhoe loader within an enclosed cargo container for shipment within the hold of a vessel, the backhoe loader including a front loader, a rear backhoe, a frame and rear stabilizer arms mounted on each side of the frame, characterized by: (a) engaging the ground with the rear stabilizer arms and the front loader of the backhoe loader; (b) extending the rear stabilizer arms and the front loader of the backhoe loader so as to lift the frame, the two front wheels and the two rear wheels of the backhoe loader off of the ground; (c) removing the two front wheels and removing the two rear wheels of the backhoe loader with its frame elevated from the ground; (d) providing two front rollers and two rear rollers; (e) mounting said two front rollers to the backhoe loader each in place of one of the two front wheels, and mounting the two rear rollers to the backhoe loader each in place of one of the two rear wheels, so that the height of the backhoe loader is less than the height of the enclosed cargo container; (f) retracting the rear stabilizer arms and the front loader so that the two front rollers and the two rear rollers contact the ground; (g) driving the backhoe loader on the two front rollers and on the two rear rollers into the interior of an enclosed cargo container for shipment within the hold of a vessel. (a) engaging the ground with the rear stabilizer arms and the front loader of the backhoe loader; (b) extending the rear stabilizer arms and the front loader of the backhoe loader so as to lift the frame, the two front wheels and the two rear wheels of the backhoe loader off of the ground; (c) removing the two front wheels and removing the two rear wheels of the backhoe loader with its frame elevated from the ground; (d) providing two front rollers and two rear rollers; (e) mounting said two front rollers to the backhoe loader each in place of one of the two front wheels, and mounting the two rear rollers to the backhoe loader each in place of one of the two rear wheels, so that the height of the backhoe loader is less than the height of the enclosed cargo container; (f) retracting the rear stabilizer arms and the front loader so that the two front rollers and the two rear rollers contact the ground; (g) driving the backhoe loader on the two front rollers and on the two rear rollers into the interior of an enclosed cargo container for shipment within the hold of a vessel.
A method of guarding an object or area, comprising the steps of: - scanning an area surrounding the object or area to be guarded using a scanning signal; - localizing a moving object detected by the scanning signal, and - generating a warning signal only if the detected moving object is localized in a safety zone that is enclosed by a pre-defined contour, characterized by that, the contour is defined by tracking a person moving around the object or area to be guarded. - scanning an area surrounding the object or area to be guarded using a scanning signal; - localizing a moving object detected by the scanning signal, and - generating a warning signal only if the detected moving object is localized in a safety zone that is enclosed by a pre-defined contour, characterized by that, the contour is defined by tracking a person moving around the object or area to be guarded.
Method for operating a cutting facility, in which a stack of material sheets, possibly comprising part-stacks, is cut in blanks, said cutting facility comprising at least one cutting machine, in which said stack is subjected on the basis of a cutting program to first processing steps, such as cutting, rotating, moving, wherein process time is ascertained as a first process time of every first processing step and the ascertained first process times are mathematically linked for calculation of a first total process time, and wherein feeding of the stack to the cutting facility and processing therein take place taking into account said first total process time.
A crossflow heat exchanger comprising: an outer housing; an inlet that receives a hot fluid to be cooled; a monolithic manifold comprising a central receiving reservoir and one or more outer reservoirs, the fluid received at the inlet passing into the central receiving reservoir, wherein the monolithic manifold includes a gap between the central receiving reservoir and one or more outer reservoirs; an outlet connected to the one or more outer reservoirs; and tubes disposed within the outer housing that connect the central receiving reservoir and the one or more outer reservoirs of the monolithic manifold. an outer housing; an inlet that receives a hot fluid to be cooled; a monolithic manifold comprising a central receiving reservoir and one or more outer reservoirs, the fluid received at the inlet passing into the central receiving reservoir, wherein the monolithic manifold includes a gap between the central receiving reservoir and one or more outer reservoirs; an outlet connected to the one or more outer reservoirs; and tubes disposed within the outer housing that connect the central receiving reservoir and the one or more outer reservoirs of the monolithic manifold.
Drive comprising an electric motor and a gearing, the casing of the gearing having a casing part and a lid part, which in particular are interconnected, the casing part having bearing receptacles (4, 5, 6), a respective bearing seat being provided in each bearing receptacle (4, 5, 6), planar bearing-surface regions, which are aligned with one another, being shaped on the side of the casing part facing away from the bearing seat, i.e. the outside, the bearing-surface regions being arranged in a common plane, the casing part being a cast part, the electric motor having a rotor shaft and a motor casing, the rotor shaft being rotatably mounted in the motor casing by means of at least one bearing, an adapter flange being connected to the motor casing for conjoint rotation, characterised in that each bearing seat is discontinuous in the circumferential direction, a bayonet guide region being formed on the casing part, the axial width of the bayonet guide region increasing in the circumferential direction, the adapter flange having a lug region, in particular a bayonet lug, for engaging behind the bayonet guide region. the casing of the gearing having a casing part and a lid part, which in particular are interconnected, the casing part having bearing receptacles (4, 5, 6), a respective bearing seat being provided in each bearing receptacle (4, 5, 6), planar bearing-surface regions, which are aligned with one another, being shaped on the side of the casing part facing away from the bearing seat, i.e. the outside, the bearing-surface regions being arranged in a common plane, the casing part being a cast part, the electric motor having a rotor shaft and a motor casing, the rotor shaft being rotatably mounted in the motor casing by means of at least one bearing, an adapter flange being connected to the motor casing for conjoint rotation, characterised in that each bearing seat is discontinuous in the circumferential direction, a bayonet guide region being formed on the casing part, the axial width of the bayonet guide region increasing in the circumferential direction, the adapter flange having a lug region, in particular a bayonet lug, for engaging behind the bayonet guide region.
Method for the regulation of a temperature in an exhaust system in a motor vehicle through control of its driveline, the motor vehicle of which comprises: a driveline comprising a combustion engine which may be connected to a gearbox via a clutch device, and an exhaust system arranged for the removal of an exhaust stream from the said combustion engine; where the said method comprises the step: - control of the said driveline for activation or deactivation of coasting based on one or several first parameters ( P 1) and on one or several second parameters ( P 2) for the regulation of a temperature ( T Ex) in the said exhaust system; characterised by that: at least one of the said one or several first parameters ( P 1) is a first temperature difference between a first temperature ( T 1) in the said exhaust system and a reference temperature (T Ref), and at least one of the said one or several second parameters ( P 2) is related to a calculated speed and/or a calculated road inclination over the road section ahead for the said motor vehicle. - control of the said driveline for activation or deactivation of coasting based on one or several first parameters ( P 1) and on one or several second parameters ( P 2) for the regulation of a temperature ( T Ex) in the said exhaust system; at least one of the said one or several first parameters ( P 1) is a first temperature difference between a first temperature ( T 1) in the said exhaust system and a reference temperature (T Ref), and at least one of the said one or several second parameters ( P 2) is related to a calculated speed and/or a calculated road inclination over the road section ahead for the said motor vehicle.
An optical telecommunication module including a casing, this module including a front body, a bottom plate secured to said front body, an upper cover plate and a rear plate pivoting relative to said bottom plate, said cover plate pivoting relative to the bottom plate, said cover plate pivoting relative to said rear plate, characterized in that said casing is made from plastic, and in that said rear plate is a platen including, on its inner face, a set of parts allowing the guiding and/or the splicing and/or the accommodation of coupling systems and/or the storage of optical fibers.
Method for preparing a planar membrane module, comprising - providing a solid state planar membrane (2, 6); - placing a spacer at least at one side of the planar membrane (2, 6) and attaching said spacer onto said planar membrane (2, 6) at the periphery of said planar membrane (2, 6) by hot pressing, thereby forming a sub-assembly of spacer and planar membrane; - injection moulding a potting around said sub-assembly of spacer and planar membrane, thereby forming a membrane frame; and - joining a stack of said membrane frames in a gastight manner to form a planar membrane module, said joining comprising welding of potting material of said membrane frames. - providing a solid state planar membrane (2, 6); - placing a spacer at least at one side of the planar membrane (2, 6) and attaching said spacer onto said planar membrane (2, 6) at the periphery of said planar membrane (2, 6) by hot pressing, thereby forming a sub-assembly of spacer and planar membrane; - injection moulding a potting around said sub-assembly of spacer and planar membrane, thereby forming a membrane frame; and - joining a stack of said membrane frames in a gastight manner to form a planar membrane module, said joining comprising welding of potting material of said membrane frames.
A thermal interface material composition comprising: a) a non-reactive polyurethane prepolymer, which i) is a reaction product of at least one polyisocyanate and at least one hydroxy group containing compound, and ii) contains less than 0.8 wt% of residual isocyanate groups; b) 70-95 wt% of aluminum trihydroxide; c) 0.15-1.5 wt% of at least one silane terminated urethane prepolymer; and d) 1-20 wt% of at least one plasticizer, with the total weight of the thermal interface material totaling to 100 wt%. a) a non-reactive polyurethane prepolymer, which i) is a reaction product of at least one polyisocyanate and at least one hydroxy group containing compound, and ii) contains less than 0.8 wt% of residual isocyanate groups; b) 70-95 wt% of aluminum trihydroxide; c) 0.15-1.5 wt% of at least one silane terminated urethane prepolymer; and d) 1-20 wt% of at least one plasticizer,
A tool for cutting an access window on an optical cable, wherein the optical cable comprises a sheath, wherein the tool comprises: - a first arm and a second arm, wherein the first and second arms (2A, 2B) are hinged at a pivot axis so that, for each of the first and second arms, an handle (21A, 21B) and a jaw (22A, 22B), respectively, is provided; - a first jaw head and a second jaw head which are connected to the jaws (22A, 22B) of the first and second arms (2A, 2B); - a first cutting device rigidly connected to the first jaw head and a second cutting device rigidly connected to the second jaw head for cutting a window in the sheath of the cable when the handles (21A, 21B) are rotated to a closing configuration; and - a first backing device and a second backing device, wherein said first and second backing devices (5A, 5B) are configured for backing the cable when the window is cut in the sheath. - a first arm and a second arm, wherein the first and second arms (2A, 2B) are hinged at a pivot axis so that, for each of the first and second arms, an handle (21A, 21B) and a jaw (22A, 22B), respectively, is provided; - a first jaw head and a second jaw head which are connected to the jaws (22A, 22B) of the first and second arms (2A, 2B); - a first cutting device rigidly connected to the first jaw head and a second cutting device rigidly connected to the second jaw head for cutting a window in the sheath of the cable when the handles (21A, 21B) are rotated to a closing configuration; and - a first backing device and a second backing device, wherein said first and second backing devices (5A, 5B) are configured for backing the cable when the window is cut in the sheath.
Vacuum packaging arrangement comprising a drawer configured to cooperate with a kitchen cabinet, and a vacuum packaging device configured for vacuum packaging items in vacuum bags, wherein the vacuum packaging device is functionally integrated in a ready-to-operate configuration within the drawer and provides, within the drawer, an operational interface configured to receive a minor first section of a vacuum bag that comprises an open end of a vacuum bag, and to vacuum the vacuum bag upon activation of the vacuum packaging device, wherein the vacuum packaging device is implemented such that a major second section of the vacuum bag that comprises a closed end of the vacuum bag is arranged outside of the vacuum packaging device, and wherein the interface comprises a welding unit configured for vacuum-tightly sealing vacuum bags by generating a vacuum bag welded seam, and wherein the interface further comprises a clamping unit configured for clamping the vacuum bag open end section at least during generating the welded seam, characterized in that the vacuum packaging arrangement comprises a sensor arrangement, configured and adapted to detect liquid flowing out of the major section of the vacuum bag during vacuuming, in a direction towards a vacuum pump of the vacuum packaging device, wherein the sensor arrangement comprises a control unit adapted to stop vacuuming operation, or at least issue a warning, in case that a liquid flow from the major section towards the vacuum pump is detected, and wherein the sensor arrangement further comprises a liquid or moisture sensor arranged between the clamping unit and the vacuum pump, and wherein in case of liquid reaching or approaching an entrance site of the vacuum pump the moisture sensor may trigger stopping vacuuming so as to avoid moisture advancing further towards the vacuum pump.
A method for storing a keyword, comprising: performing a first Hash function operation on a keyword to obtain an address of a first Hash bucket; and searching for the first Hash bucket according to the address of the first Hash bucket; performing a second Hash function operation on the keyword to obtain an address of a second Hash bucket; and searching for the second Hash bucket according to the address of the second Hash bucket; and if no compressed keyword in the first Hash bucket conflicts with a compressed keyword of the keyword, where the compressed keyword of the keyword is obtained by performing a third Hash function operation on the keyword: storing the compressed keyword of the keyword and a pointer of the keyword into the first Hash bucket when the first Hash bucket has remaining space; and characterized by: storing the compressed keyword of the keyword and the pointer of the keyword into the second Hash bucket when the first Hash bucket has no remaining space, the second Hash bucket has remaining space, and no compressed keyword in the second Hash bucket conflicts with the compressed keyword of the keyword. performing a first Hash function operation on a keyword to obtain an address of a first Hash bucket; and searching for the first Hash bucket according to the address of the first Hash bucket; performing a second Hash function operation on the keyword to obtain an address of a second Hash bucket; and searching for the second Hash bucket according to the address of the second Hash bucket; and if no compressed keyword in the first Hash bucket conflicts with a compressed keyword of the keyword, where the compressed keyword of the keyword is obtained by performing a third Hash function operation on the keyword: storing the compressed keyword of the keyword and a pointer of the keyword into the first Hash bucket when the first Hash bucket has remaining space; and characterized by: storing the compressed keyword of the keyword and the pointer of the keyword into the second Hash bucket when the first Hash bucket has no remaining space, the second Hash bucket has remaining space, and no compressed keyword in the second Hash bucket conflicts with the compressed keyword of the keyword. storing the compressed keyword of the keyword and a pointer of the keyword into the first Hash bucket when the first Hash bucket has remaining space; and characterized by: storing the compressed keyword of the keyword and the pointer of the keyword into the second Hash bucket when the first Hash bucket has no remaining space, the second Hash bucket has remaining space, and no compressed keyword in the second Hash bucket conflicts with the compressed keyword of the keyword.