mhurhangee/ep-ind-claims huggingface dataset:
A C-frame tool head (100; 200; 300; 500) and a plurality of dies, the tool head defining a proximal end and an opposite distal end, and an extension axis corresponding to movement of a ram, piston, or force producing member, the tool head (100; 200; 300; 500) comprising: a body portion; a hook member extending from the body portion, the hook member defining a crimp face (123, 233, 533) directed toward the proximal end of the tool head, the crimp face (123, 233, 533) defining a center axis that bisects the crimp face (123, 233, 533); wherein upon the tool head being in an unloaded state, the center axis is spaced from the extension axis, and upon being in a loaded state, the center axis is displaced towards the extension axis, wherein upon application of a load as would be applied during the pressing operation, the tool head deflects to a position such that the plurality of dies are aligned to thereby enable full die closure. a body portion; a hook member extending from the body portion, the hook member defining a crimp face (123, 233, 533) directed toward the proximal end of the tool head, the crimp face (123, 233, 533) defining a center axis that bisects the crimp face (123, 233, 533); wherein upon the tool head being in an unloaded state, the center axis is spaced from the extension axis, and upon being in a loaded state, the center axis is displaced towards the extension axis,
A method for wireless communication by an access point, AP, comprising: managing a first basic service set, BSS, on a wireless channel; determining that at least a first station, STA, is configured to utilize a priority access service of the first BSS, the priority access service associated with prioritizing traffic to or from the first STA via the wireless channel, wherein the determining that the at least first STA is configured to utilize the priority access service includes receiving a priority service request frame including a priority access indication from the first STA, and wherein the priority access indication is included in a preamble or a physical layer, PHY, header of the priority service request frame; the method further comprising: modifying one or more settings of the first BSS based on a determination that the first STA is configured to utilize the priority access service, wherein the one or more settings are modified to favor a contention-based access of the wireless channel by the first STA over one or more other STAs of the first BSS that are not configured to utilize the priority access service; and transmitting a priority service response frame to the first STA to confirm that the first STA is authorized to use the priority access service. managing a first basic service set, BSS, on a wireless channel; determining that at least a first station, STA, is configured to utilize a priority access service of the first BSS, the priority access service associated with prioritizing traffic to or from the first STA via the wireless channel, wherein the determining that the at least first STA is configured to utilize the priority access service includes receiving a priority service request frame including a priority access indication from the first STA, and wherein the priority access indication is included in a preamble or a physical layer, PHY, header of the priority service request frame; the method further comprising: modifying one or more settings of the first BSS based on a determination that the first STA is configured to utilize the priority access service, wherein the one or more settings are modified to favor a contention-based access of the wireless channel by the first STA over one or more other STAs of the first BSS that are not configured to utilize the priority access service; and transmitting a priority service response frame to the first STA to confirm that the first STA is authorized to use the priority access service. modifying one or more settings of the first BSS based on a determination that the first STA is configured to utilize the priority access service, wherein the one or more settings are modified to favor a contention-based access of the wireless channel by the first STA over one or more other STAs of the first BSS that are not configured to utilize the priority access service; and transmitting a priority service response frame to the first STA to confirm that the first STA is authorized to use the priority access service.
A method of producing a localised concentration of energy comprising: providing a non-gaseous medium (6; 106; 306; 406) having therein a pocket of gas (2; 102; 202; 302; 402), wherein the pocket of gas (2; 102; 202; 302; 402) is in contact with a surface (4; 104; 204; 304; 404) comprising a depression (8; 108; 208; 308; 408) shaped so as to at least partially receive the pocket of gas (2; 102; 202; 302; 402); and characterised in that the method further comprises applying a static pressure to the non-gaseous medium (6; 106; 306; 406), wherein the static pressure has an average value greater than atmospheric pressure such that the pocket of gas (2; 102; 202; 302; 402) collapses to form a transverse jet, and wherein the surface depression (8; 108; 208; 308; 408) is arranged to receive the transverse jet impact such that at least some of pocket of gas (2; 102; 202; 302; 402) is trapped between the impacting jet and the surface depression (8; 108; 208; 308; 408). providing a non-gaseous medium (6; 106; 306; 406) having therein a pocket of gas (2; 102; 202; 302; 402), wherein the pocket of gas (2; 102; 202; 302; 402) is in contact with a surface (4; 104; 204; 304; 404) comprising a depression (8; 108; 208; 308; 408) shaped so as to at least partially receive the pocket of gas (2; 102; 202; 302; 402); and characterised in that the method further comprises applying a static pressure to the non-gaseous medium (6; 106; 306; 406), wherein the static pressure has an average value greater than atmospheric pressure such that the pocket of gas (2; 102; 202; 302; 402) collapses to form a transverse jet, and wherein the surface depression (8; 108; 208; 308; 408) is arranged to receive the transverse jet impact such that at least some of pocket of gas (2; 102; 202; 302; 402) is trapped between the impacting jet and the surface depression (8; 108; 208; 308; 408).
Process for lowering the concentration of polymeric particles in a mixture containing polymeric particles in aqueous medium, by means of the apparatus according to Claim 8 or 9, characterized in that the polymeric particles in the aqueous medium have a ζ potential, where, if the ζ potential is zero, at least one emulsifier is admixed to the mixture to cause the ζ potential to be ≠ 0, and the mixture is brought between two electrodes between which at least one electrostatic field is generated, where at least one electrode is a movable body which can be moved at least partly out of the mixture and is a rotating roll W, where the roll W as anode or cathode is set in rotation about an axis A and dips at least partly into the mixture G, and the material of the roll W is selected from titanium, and the roll W has at least one coating of iridium oxide and a nylon membrane, so that the polymeric particles are deposited on at least part of the surface of the positive or negative electrode. the polymeric particles in the aqueous medium have a ζ potential, where, if the ζ potential is zero, at least one emulsifier is admixed to the mixture to cause the ζ potential to be ≠ 0, and the mixture is brought between two electrodes between which at least one electrostatic field is generated, where at least one electrode is a movable body which can be moved at least partly out of the mixture and is a rotating roll W, where the roll W as anode or cathode is set in rotation about an axis A and dips at least partly into the mixture G, and the material of the roll W is selected from titanium, and the roll W has at least one coating of iridium oxide and a nylon membrane, so that the polymeric particles are deposited on at least part of the surface of the positive or negative electrode.
An elastic physiological patch (100, 100', 100", 100a, 100b, 100c) comprising a patch assembly and an implant assembly, characterized by: said patch assembly including an electronic device, and a soft patch body defining a chamber for receiving said electronic device, said patch body having a bottom wall configured to be adhered to the skin of a subject, and a top wall opposite to said bottom wall and cooperating with said bottom wall to define therebetween said chamber; wherein said implant assembly is mountable to said electronic device and includes an implant; werein said implant is configured for being driven to partially pass through said patch body and is adapted to be implanted in the skin of a subject; wherein said patch body is configured to tightly hold said implant when said implant is inserted therethrough, and said implant and said patch body are configured to cooperatively seal said chamber when said implant has been driven to partially pass through said patch body; and wherein said bottom wall has a thickness ranging from 0.2 mm to 1 mm, and has an adhering surface for being adhered to the skin of the subject. said patch assembly including an electronic device, and a soft patch body defining a chamber for receiving said electronic device, said patch body having a bottom wall configured to be adhered to the skin of a subject, and a top wall opposite to said bottom wall and cooperating with said bottom wall to define therebetween said chamber; wherein said implant assembly is mountable to said electronic device and includes an implant; werein said implant is configured for being driven to partially pass through said patch body and is adapted to be implanted in the skin of a subject; wherein said patch body is configured to tightly hold said implant when said implant is inserted therethrough, and said implant and said patch body are configured to cooperatively seal said chamber when said implant has been driven to partially pass through said patch body; and wherein said bottom wall has a thickness ranging from 0.2 mm to 1 mm, and has an adhering surface for being adhered to the skin of the subject.
A detonator system for hand grenades, having an ignition element which after initiation triggers a delay and safety device which, with a delay after the initiation, fires a detonator, which subsequently fires an ignition booster, wherein the delay and safety device contains a dual safety device of two independent parts, wherein the delay and safety device comprises two pyrotechnic ignition delay devices with different delay times, specifically a safety element and a delay element, wherein the delay time of the safety element is shorter than the delay time of the delay element, and the safety element includes a timing composition which, once it has burned through, ignites a gas charge, the gas of which opens blocking elements, and the delay element includes a firing charge and a timing composition, and the firing charge is only in operative connection with the detonator after the opening of the blocking elements.
A spectral observation method comprising: irradiating light to a specimen containing plural kinds of substances each of which having an excitation wavelength which is different from the others; spectrally decomposing light emitted from the specimen; detecting spectra of light emitted from the specimen with a detecting unit comprising an array of detection channels sequentially acquiring spectral data of the substances, starting from the one with the longest excitation wavelength, by switching a wavelength of said excitation light among the respective excitation wavelengths of said plural kinds of substances; excluding from the detected wavelengths of each emission spectrum, corresponding to a respective substance, the respective exciting wavelength of the substance whose emission spectral data is being acquired; and performing the excluding of the respective excitation wavelengths by means of a masking mechanism movable in the direction of the array of channels. irradiating light to a specimen containing plural kinds of substances each of which having an excitation wavelength which is different from the others; spectrally decomposing light emitted from the specimen; detecting spectra of light emitted from the specimen with a detecting unit comprising an array of detection channels sequentially acquiring spectral data of the substances, starting from the one with the longest excitation wavelength, by switching a wavelength of said excitation light among the respective excitation wavelengths of said plural kinds of substances; excluding from the detected wavelengths of each emission spectrum, corresponding to a respective substance, the respective exciting wavelength of the substance whose emission spectral data is being acquired; and performing the excluding of the respective excitation wavelengths by means of a masking mechanism movable in the direction of the array of channels.
Optical device comprising at least one rigid printed circuit board, said printed circuit board comprising an image-capturing electronic circuit; a lens support comprising at least one optical lens, the lens support comprising a wall forming a cavity extending along the optical axis of the device from its high end as far as its low end, the low end being mounted on the rigid printed circuit board in such a way as to align, along the optical axis of the device, the image-capturing electronic circuit and optical lens; and a flexible heating strip located in contact with the wall of the lens support and around the wall of the lens support, and comprising an electrical connection interface electrically connected to the said rigid printed circuit board of the optical device; characterized in that the said printed circuit board, the said heating strip, and the said electrical connection interface are one single printed circuit board, comprising a rigid main portion comprising the said rigid printed circuit board, and a flexible portion comprising the flexible heating strip and an extension forming the electrical connection interface, the said flexible portion being a continuity of the substrate of the rigid main part, and the two longitudinal ends (54, 56) of the heating strip comprise attachment means which lock the heating strip against the wall of the lens support. at least one rigid printed circuit board, said printed circuit board comprising an image-capturing electronic circuit; a lens support comprising at least one optical lens, the lens support comprising a wall forming a cavity extending along the optical axis of the device from its high end as far as its low end, the low end being mounted on the rigid printed circuit board in such a way as to align, along the optical axis of the device, the image-capturing electronic circuit and optical lens; and a flexible heating strip located in contact with the wall of the lens support and around the wall of the lens support, and comprising an electrical connection interface electrically connected to the said rigid printed circuit board of the optical device; characterized in that the said printed circuit board, the said heating strip, and the said electrical connection interface are one single printed circuit board, comprising a rigid main portion comprising the said rigid printed circuit board, and a flexible portion comprising the flexible heating strip and an extension forming the electrical connection interface, the said flexible portion being a continuity of the substrate of the rigid main part, and the two longitudinal ends (54, 56) of the heating strip comprise attachment means which lock the heating strip against the wall of the lens support.
Screw, having - a cylindrical screw shaft, - one end thereof configured as a screw driving end and - the other end thereof provided with a conical section, - said conical section tapering off in a screw tip, - a thread extending across at least a part of the screw shaft and the conical section, and having - at least two fins extending in the axial direction of the screw, - said fins starting in the region of the front end of the shaft, - reaching up into the conical section and - ending before the screw tip, wherein - the fins present a central portion of constant height and, in the region of both of their ends, in each case one wedge-shaped section (10a, 10c) of decreasing height and a rounded outer edge. - a cylindrical screw shaft, - one end thereof configured as a screw driving end and - the other end thereof provided with a conical section, - said conical section tapering off in a screw tip, - a thread extending across at least a part of the screw shaft and the conical section, and having - at least two fins extending in the axial direction of the screw, - said fins starting in the region of the front end of the shaft, - reaching up into the conical section and - ending before the screw tip, wherein - the fins present a central portion of constant height and, in the region of both of their ends, in each case one wedge-shaped section (10a, 10c) of decreasing height and a rounded outer edge.
An infrared optical system for forming an image, said system comprising: a single set of optical elements consisting of four lenses (122, 124, 126, 128), as well as a dewar's window and a detector's cold filter that are designed to have a transmission wavelength range extending below 1.2 μm and comprising a short-wavelength infrared (SWIR) range and further comprising at least one of: a middle-wavelength infrared (MWIR) range and a long-wavelength infrared (LWIR) range, to enhance a detection range of the infrared optical system, wherein the single set of optical elements is laid such that the both the SWIR range and the at least one of the MWIR range and the LWIR range of infrared radiation pass through all of the optical elements, wherein the first lens is made of arsenic triselenide, the second and fourth lenses are made of zinc sulfide, the third lens is made of lithium fluoride, and the dewar's window and cold filter are made of sapphire. a single set of optical elements consisting of four lenses (122, 124, 126, 128), as well as a dewar's window and a detector's cold filter that are designed to have a transmission wavelength range extending below 1.2 μm and comprising a short-wavelength infrared (SWIR) range and further comprising at least one of: a middle-wavelength infrared (MWIR) range and a long-wavelength infrared (LWIR) range, to enhance a detection range of the infrared optical system, wherein the single set of optical elements is laid such that the both the SWIR range and the at least one of the MWIR range and the LWIR range of infrared radiation pass through all of the optical elements, wherein the first lens is made of arsenic triselenide, the second and fourth lenses are made of zinc sulfide, the third lens is made of lithium fluoride, and the dewar's window and cold filter are made of sapphire.
A method for manufacturing a spring cross member, obtained from a bar, preferably made of wood and of rectangular cross section, the method including the following two steps carried out in any order: - machining the two longitudinal sides of the bar using a circular saw in order to obtain several cuts, partially circular in shape, distributed in staggered rows on each longitudinal side of the bar according to a cutting plane parallel to the upper surface thereof, the distribution of the cuts being identical on each of the longitudinal sides of the bar so that each cut of one of these longitudinal sides is arranged opposite a corresponding cut of the other of these longitudinal sides in order to obtain cuts distributed in staggered rows crossing the bar right through according to the cutting plane, and - machining several recesses passing through the bar right through along an axis perpendicular to the longitudinal axis of the bar at constant intervals along the latter so as to form the blocks of the spring cross member. - machining the two longitudinal sides of the bar using a circular saw in order to obtain several cuts, partially circular in shape, distributed in staggered rows on each longitudinal side of the bar according to a cutting plane parallel to the upper surface thereof, the distribution of the cuts being identical on each of the longitudinal sides of the bar so that each cut of one of these longitudinal sides is arranged opposite a corresponding cut of the other of these longitudinal sides in order to obtain cuts distributed in staggered rows crossing the bar right through according to the cutting plane, and - machining several recesses passing through the bar right through along an axis perpendicular to the longitudinal axis of the bar at constant intervals along the latter so as to form the blocks of the spring cross member.
A radiator, comprising: a radiating part, comprising: a housing; and a set of blades which are arranged on the inner surface of the housing; a heat conductive part, comprising: a shell, the shell has a heat conductive surface which is configured to be in contact with a heat source; and a receiving section with two open ends, the receiving section is defined by the shell, and the receiving section is configured to receive the radiating part; heat conductive fluid, the heat conductive fluid is defined in between the housing of the radiating part and the receiving section of the heat conductive part by a sealed bearing; and heat pipes buried inside of the shell of the heat conductive part; wherein, the radiating part is rotatably fixed on the receiving section of the heat conductive part, when the radiating part rotates, fluid can be drawn into one end of the receiving section and then blown out at the other end by the blades. a radiating part, comprising: a housing; and a set of blades which are arranged on the inner surface of the housing; a housing; and a set of blades which are arranged on the inner surface of the housing; a heat conductive part, comprising: a shell, the shell has a heat conductive surface which is configured to be in contact with a heat source; and a receiving section with two open ends, the receiving section is defined by the shell, and the receiving section is configured to receive the radiating part; a shell, the shell has a heat conductive surface which is configured to be in contact with a heat source; and a receiving section with two open ends, the receiving section is defined by the shell, and the receiving section is configured to receive the radiating part; heat conductive fluid, the heat conductive fluid is defined in between the housing of the radiating part and the receiving section of the heat conductive part by a sealed bearing; and heat pipes buried inside of the shell of the heat conductive part; wherein, the radiating part is rotatably fixed on the receiving section of the heat conductive part, when the radiating part rotates, fluid can be drawn into one end of the receiving section and then blown out at the other end by the blades.