mhurhangee/patent-ind-claim-en huggingface dataset:
A cable management assembly , comprising: a plurality of detachable cable support members forming a helix, the plurality of detachable cable support members comprising: a first plurality of segments secured together forming a first loop, the first plurality of segments including one or more planar segments and one or more curved segments; where at least one segment in the first plurality of segments includes one or more attachments points , the one or more attachment points adapted for securing cabling to the plurality of detachable cable support members ; where the cable management assembly , is operational between a first un-extended configuration and a second extended configuration; where the cable management assembly , stretches in the second extended configuration allowing secured cabling to be pulled out to a service length; characterized by a second plurality of segments secured together forming a second loop, the second plurality of segments including one or more planar segments and one or more curved segments. a plurality of detachable cable support members forming a helix, the plurality of detachable cable support members comprising: a first plurality of segments secured together forming a first loop, the first plurality of segments including one or more planar segments and one or more curved segments; where at least one segment in the first plurality of segments includes one or more attachments points , the one or more attachment points adapted for securing cabling to the plurality of detachable cable support members ; where the cable management assembly , is operational between a first un-extended configuration and a second extended configuration; where the cable management assembly , stretches in the second extended configuration allowing secured cabling to be pulled out to a service length; a first plurality of segments secured together forming a first loop, the first plurality of segments including one or more planar segments and one or more curved segments; where at least one segment in the first plurality of segments includes one or more attachments points , the one or more attachment points adapted for securing cabling to the plurality of detachable cable support members ; where the cable management assembly , is operational between a first un-extended configuration and a second extended configuration; where the cable management assembly , stretches in the second extended configuration allowing secured cabling to be pulled out to a service length; characterized by a second plurality of segments secured together forming a second loop, the second plurality of segments including one or more planar segments and one or more curved segments.
A system for the treatment of brain cancer, comprising: an alternating electric field generation apparatus, comprising: an electrode array , comprising: a plurality of subdural electrodes , wherein each of the subdural electrodes is configured to be implanted subdurally onto the brain of a patient; a plurality of deep-stimulating electrodes , wherein each of the plurality of deep-stimulating electrodes is configured to be implanted; wherein the electrode array delivers an alternating electric field to the tissue of the brain through the plurality of subdural electrodes and the plurality of deep-stimulating electrodes ; and a controller module in operative communication with the electrode array , wherein the controller module is operable to generate a waveform representative of the alternating electric field, wherein the waveform is transmitted to the electrode array ; and an external computer , wherein the external computer is operable to receive feedback from the controller module and wherein the external computer is operable to send commands to the controller module ; wherein the controller module is operable to incorporate feedback from the electrode array and communicate the feedback to the external computer . a plurality of subdural electrodes , wherein each of the subdural electrodes is configured to be implanted subdurally onto the brain of a patient; a plurality of deep-stimulating electrodes , wherein each of the plurality of deep-stimulating electrodes is configured to be implanted; wherein the electrode array delivers an alternating electric field to the tissue of the brain through the plurality of subdural electrodes and the plurality of deep-stimulating electrodes ; and a controller module in operative communication with the electrode array , wherein the controller module is operable to generate a waveform representative of the alternating electric field, wherein the waveform is transmitted to the electrode array ; and an external computer , wherein the external computer is operable to receive feedback from the controller module and wherein the external computer is operable to send commands to the controller module ; wherein the controller module is operable to incorporate feedback from the electrode array and communicate the feedback to the external computer .
A system for quality control of a piece of clothing , comprising: (a) a means for blowing control gas in said piece of clothing; (b) an image capturing means for detecting defective location on said piece of clothing; wherein said means for blowing control gas is adapted to provide said control gas at a temperature of at least 20°C above ambient, said image capturing means comprises one or more thermal cameras . (a) a means for blowing control gas in said piece of clothing; (b) an image capturing means for detecting defective location on said piece of clothing;
A particle containing at least one covalently cross-linked polysaccharide and at least one growth factor, said particle further comprising a protein which is co-cross-linked with the polysaccharide and being either: - a microcapsule having a core/membrane structure, wherein said core is liquid, or - a microsphere, the growth factor being adsorbed to the covalently cross-linked polysaccharide of the whole volume of the microsphere. - a microcapsule having a core/membrane structure, wherein said core is liquid, or - a microsphere, the growth factor being adsorbed to the covalently cross-linked polysaccharide of the whole volume of the microsphere.
A method of manufacturing an article for use in a vehicle: - pre-forming a base layer from a sheet which includes a flexible fibrous material to provide the base layer with a defined peripheral profile; - placing an overlay of smooth non-porous polymer material onto an HFW (high frequency welding) die, said HFW die having an upper contact surface which includes active welding areas for contact with the overlay and inset non-active areas which are spaced from the overlay; - covering the overlay with a hot melt adhesive laminate ; - placing the pre-formed base layer onto the hot melt adhesive laminate such that the overlay covers at least part of the pre-formed base layer; - placing a metal contact plate onto the base layer above the HFW die; - applying electrical power to the HFW die to cause the hot melt adhesive laminate to melt and bond areas of the overlay in contact with the active welding areas of the die to the corresponding overlying areas of the pre-formed base layer; - wherein the active welding areas of the HFW die comprise lines (25, 26; 37) of discrete active welding areas which are separated by spaces ; characterised in that the pre-formed base layer is positioned such that the overlay extends beyond at least one peripheral edge of the base layer. - pre-forming a base layer from a sheet which includes a flexible fibrous material to provide the base layer with a defined peripheral profile; - placing an overlay of smooth non-porous polymer material onto an HFW (high frequency welding) die, said HFW die having an upper contact surface which includes active welding areas for contact with the overlay and inset non-active areas which are spaced from the overlay; - covering the overlay with a hot melt adhesive laminate ; - placing the pre-formed base layer onto the hot melt adhesive laminate such that the overlay covers at least part of the pre-formed base layer; - placing a metal contact plate onto the base layer above the HFW die; - applying electrical power to the HFW die to cause the hot melt adhesive laminate to melt and bond areas of the overlay in contact with the active welding areas of the die to the corresponding overlying areas of the pre-formed base layer; - wherein the active welding areas of the HFW die comprise lines (25, 26; 37) of discrete active welding areas which are separated by spaces ;
Component for a machine for manufacturing and/or treating a sheet of fibrous material, comprising a main body and at least one metallic functional layer applied at least indirectly thereto, wherein the at least one functional layer comprises a hard phase (4.2) and a binder phase (4.1), characterized in that the hard phase (4.2) has at least first and second hard phase particles (4.2.1, 4.2.2), which differ with regard to their average grain size, so that there is at least a bimodal grain size distribution of the hard phase particles (4.2.1, 4.2.2) in the functional layer .
In vitro or ex vivo method for the diagnosis and/or prognosis and/or for monitoring of the development of a tumor, comprising a step of determine and/or quantify the active form of the human caspase-4 protein (SEQ ID No. 1) in a sample isolated from a subject during the prognosis and/or the monitoring of the development and/or progression of a tumor, wherein said tumor is a lung cancer.
A captive pretensioning element pressure screw with a shank (12; 52), which has a first end (13; 53) and a second end (14; 54) opposite the first end (13; 53), wherein starting from the first end (13; 53), a threaded section (16; 56) with an outer diameter (D) is provided and, adjoining the threaded section (16; 56), a threadless shank section (21; 61) with an outer diameter (dg) is provided, which extends up to the second end (14; 54) of the shank (12; 52), and with an engagement means (26; 66) for a tool, which is provided on the first end (13; 53) of the shank (12; 52), characterized in that the outer diameter (dg) of the threadless shank section (21; 61) is 0.95 to 1.5 times, advantageously 1.0 times, the outer diameter (D) of the threaded section (16; 56).
A method of manufacturing of decorative surface includes the following steps: 1) inkjet printing a colour pattern on a paper substrate to produce a decorative layer by means of inks that include a red ink containing C.I. Pigment Red 254 or a mixed crystal thereof; 2) thereafter impregnating the paper with a thermosetting resin; and 3) applying the decorative layer and a protective layer including a thermosetting resin impregnated paper on a mostly wood-based core layer by means of a short cycle embossing press and optionally at the same time creating relief in at least the protective layer; wherein the inks form a CRYK aqueous inkjet ink set; and wherein the paper substrate includes one or more ink receiving layers for improving the image quality of the aqueous inkjet inks jetted thereon; wherein the CRYK aqueous inkjet ink set further includes a cyan aqueous inkjet ink containing a copper phthalocyanine pigment; a yellow aqueous inkjet ink containing a pigment C.I Pigment Yellow 151 or a mixed crystal thereof; and a black aqueous inkjet ink containing a carbon black pigment; with the proviso that the aqueous inkjet inks do not include a polymer latex binder. 2) thereafter impregnating the paper with a thermosetting resin; and 3) applying the decorative layer and a protective layer including a thermosetting resin impregnated paper on a mostly wood-based core layer by means of a short cycle embossing press and optionally at the same time creating relief in at least the protective layer; wherein the inks form a CRYK aqueous inkjet ink set; and wherein the paper substrate includes one or more ink receiving layers for improving the image quality of the aqueous inkjet inks jetted thereon; wherein the CRYK aqueous inkjet ink set further includes a cyan aqueous inkjet ink containing a copper phthalocyanine pigment; a yellow aqueous inkjet ink containing a pigment C.I Pigment Yellow 151 or a mixed crystal thereof; and a black aqueous inkjet ink containing a carbon black pigment; with the proviso that the aqueous inkjet inks do not include a polymer latex binder.
A computer game controller, comprising a base placed on a fixed substrate, with a chassis placed thereupon, of ergonomic shape adapted for resting the user's hand, with a number of function buttons on the top surface, the function buttons enabling programming their functions, characterized in that the base is connected with the chassis by means of a sliding lever mechanism , situated substantially axially along the longitudinal axis of the base , providing tilting the chassis relative to the base in two opposite directions, and a sliding movement of the chassis forward and rearward in relation to the base , and at least one front switch and a corresponding front resistive element , at least one rear switch and a corresponding rear resistive element , at least one left-side switch and a corresponding left-side resistive element , and at least one right-side switch and a corresponding right-side resistive element so that during the sliding forward movement, the front resistive element presses the front switch , during the sliding backward movement, the rear resistive element presses the rear switch , on tilting to the left, the left-side resistive element presses the left-side switch , and on tilting to the right, the right-side resistive element presses the right-side switch .
An apparatus , comprising: a control module configured to: control a transceiver which is enabled to communicate using at least two specific transmission resources , wherein a first of said resources is useable for a device-to-device communication, detect a request signal received via the first resource , the request signal triggering initiation of a device-to-device communication; verify that the request signal contains a first identity which identifies a device associated to the apparatus , responsive thereto, cause the transceiver to broadcast a first response containing the first identity, detect a second response received via the first resource and containing a second identity which identifies another device , and responsive thereto, start a device-to-device communication via the first resource between the devices having the first and second identities; wherein the request signal comprises at least two predetermined address fields, wherein a first predetermined one of those address fields contains the first identity; and wherein the control module is further configured to verify that the request signal contains the first identity in the first predetermined address field; wherein a second predetermined one of those address fields contains the second identity; and wherein the control module is further configured to confirm that the second identity contained in the second response is identical to the second identity contained in the request signal. control a transceiver which is enabled to communicate using at least two specific transmission resources , wherein a first of said resources is useable for a device-to-device communication, detect a request signal received via the first resource , the request signal triggering initiation of a device-to-device communication; verify that the request signal contains a first identity which identifies a device associated to the apparatus , responsive thereto, cause the transceiver to broadcast a first response containing the first identity, detect a second response received via the first resource and containing a second identity which identifies another device , and responsive thereto, start a device-to-device communication via the first resource between the devices having the first and second identities; wherein the request signal comprises at least two predetermined address fields, wherein a first predetermined one of those address fields contains the first identity; and wherein the control module is further configured to verify that the request signal contains the first identity in the first predetermined address field; wherein a second predetermined one of those address fields contains the second identity; and wherein the control module is further configured to confirm that the second identity contained in the second response is identical to the second identity contained in the request signal.
A handling arrangement for handling tools and/or workpieces of a machine tool comprising - a horizontal rail arrangement , - a vertical tower which is arranged on the horizontal rail arrangement so as to be movable in the direction of a horizontal axis - a vertical rail arrangement which is arranged on the tower - a vertical carriage which is movable on the vertical rail arrangement in the vertical direction (B) - exactly one one-piece rigid arm , which is arranged on the vertical carriage and - a manipulator , which is arranged on the arm and is swivel-mounted about a horizontal, second swivel axis on the arm , characterized in that the arm is swivel-mounted about a horizontal, first swivel axis on the vertical carriage - wherein the arm is swivel-mounted about a vertical swivel axis (103; 104), - wherein the first swivel axis is parallel to the second swivel axis , and - wherein the first swivel axis is arranged at a first side of the vertical swivel axis (103; 104) in a first distance (A1) from the vertical swivel axis (103; 104). - a horizontal rail arrangement , - a vertical tower which is arranged on the horizontal rail arrangement so as to be movable in the direction of a horizontal axis - a vertical rail arrangement which is arranged on the tower - a vertical carriage which is movable on the vertical rail arrangement in the vertical direction (B) - exactly one one-piece rigid arm , which is arranged on the vertical carriage and - a manipulator , which is arranged on the arm and is swivel-mounted about a horizontal, second swivel axis on the arm , - wherein the arm is swivel-mounted about a vertical swivel axis (103; 104), - wherein the first swivel axis is parallel to the second swivel axis , and - wherein the first swivel axis is arranged at a first side of the vertical swivel axis (103; 104) in a first distance (A1) from the vertical swivel axis (103; 104).
Safety device enabling the positioning of a ladder to be determined at an angle in the order of 70° and intended to be inserted detachably into the rung of a ladder, the device comprising a case into which an electric circuit is integrated comprising a tilt switch oriented along a virtual line , a power source to operate the tilt switch , a power switch and a LED push button giving a light signal, a sound signal device activated by a signal emitted by the tilt switch , the LED push button and the sound signal device being activated for as long as the ladder is in an improper position, wherein the device additionally comprises a spirit level calibrated for a perfect level.
Method for operating an illumination apparatus, having at least two light-emitting devices , which are arranged next to one another each separated by a gap and each have a multiplicity of light-emitting elements, containing - individually driving all light-emitting elements of each light-emitting device , characterized by - measuring a gap width of the respective gap and/or a luminance in the respective gap while all light-emitting elements are driven; - storing the measured respective gap width and/or luminance; and - controlling or regulating in each case a luminance of one or more of the light-emitting elements which are arranged directly at the respective gap in dependence on the measured gap width and/or on the measured luminance in the respective gap. - individually driving all light-emitting elements of each light-emitting device , characterized by - measuring a gap width of the respective gap and/or a luminance in the respective gap while all light-emitting elements are driven; - storing the measured respective gap width and/or luminance; and - controlling or regulating in each case a luminance of one or more of the light-emitting elements which are arranged directly at the respective gap in dependence on the measured gap width and/or on the measured luminance in the respective gap.
A heat recovery boiler comprising: a flue-gases flowing chamber extending along a longitudinal axis (A) and provided with an inlet and an outlet ; a steam circuit fed with water and extending at least in part inside the flue-gases flowing chamber so as to exploit the heat of the flue-gases to generate steam; an inlet diffuser connected to the inlet of the flue-gases flowing chamber wherein flue-gases from a flue-gases source flow in one advancing direction (D); the heat recovery boiler being characterized by the fact that at least one first wall (22; 19; 20) of the inlet diffuser is provided with at least one first bulge , which involves an increase in the passage section of the inlet diffuser and a decrease in the passage section of the inlet diffuser ; the section decrease being arranged downstream of the section increase along the advancing direction (D). a flue-gases flowing chamber extending along a longitudinal axis (A) and provided with an inlet and an outlet ; a steam circuit fed with water and extending at least in part inside the flue-gases flowing chamber so as to exploit the heat of the flue-gases to generate steam; an inlet diffuser connected to the inlet of the flue-gases flowing chamber wherein flue-gases from a flue-gases source flow in one advancing direction (D); the heat recovery boiler being characterized by the fact that at least one first wall (22; 19; 20) of the inlet diffuser is provided with at least one first bulge , which involves an increase in the passage section of the inlet diffuser and a decrease in the passage section of the inlet diffuser ; the section decrease being arranged downstream of the section increase along the advancing direction (D).
A method for forming a layer of functional material on an electrically conductive substrate , the method comprising: a. forming an interlayer on the substrate by deposition or anodization, wherein the interlayer comprises a transition metal oxide, a noble metal or a noble-metal oxide, and wherein the interlayer has a thickness in the range between 0.5 nm and 30 nm; b. depositing a functional material precursor layer on the interlayer ; and c. activating the functional material precursor layer by annealing, to thereby form the layer of functional material ; wherein the electrically conductive substrate is a transition metal substrate, and wherein depositing the functional material precursor layer in step b comprises anodic electrodeposition. a. forming an interlayer on the substrate by deposition or anodization, wherein the interlayer comprises a transition metal oxide, a noble metal or a noble-metal oxide, and wherein the interlayer has a thickness in the range between 0.5 nm and 30 nm; b. depositing a functional material precursor layer on the interlayer ; and c. activating the functional material precursor layer by annealing, to thereby form the layer of functional material ; wherein the electrically conductive substrate is a transition metal substrate, and wherein depositing the functional material precursor layer in step b comprises anodic electrodeposition.
A biocompatible hemostatic aerosol comprising polyethylene oxide particles with a viscosity-average molecular weight ranging from 100,000 to 7,000,000 Daltons, a particle size ranging from 0.5μm to 2000μm and a water absorbency capacity ranging from 1 to 500 times of its own weight, wherein the biocompatible hemostatic aerosol is able to form a hydrogel after spraying onto a wound surface.