mhurhangee/patent-ind-claim-en huggingface dataset:
A method of transmitting protocol data units, PDUs , in a radio communication from a transmitter to a receiver , the method comprising or triggering the steps of: receiving one or more control messages indicative of Quality of Service, QoS, requirements for the radio communication, the QoS requirements including a control command for a reliability of the radio communication and a control command for a latency of the radio communication; and transmitting a batch of redundant PDUs from the transmitter to the receiver , wherein a number of the redundant PDUs per batch depends on the control command for the reliability and a temporal spread of the redundant PDUs per batch depends on the control command for the latency, characterized in that the reliability control command includes a reliability requirement for the reliability of the radio communication, and the number of the redundant PDUs per batch depends on the reliability requirement, and wherein the latency control command includes a latency requirement for the latency of the radio communication, and wherein the temporal spread of the redundant PDUs per batch depends on the latency requirement, and wherein the latency requirement corresponds to a time interval encompassing all the radio resources on which the redundant PDUs of the batch are transmitted. receiving one or more control messages indicative of Quality of Service, QoS, requirements for the radio communication, the QoS requirements including a control command for a reliability of the radio communication and a control command for a latency of the radio communication; and transmitting a batch of redundant PDUs from the transmitter to the receiver , wherein a number of the redundant PDUs per batch depends on the control command for the reliability and a temporal spread of the redundant PDUs per batch depends on the control command for the latency, characterized in that the reliability control command includes a reliability requirement for the reliability of the radio communication, and the number of the redundant PDUs per batch depends on the reliability requirement, and wherein the latency control command includes a latency requirement for the latency of the radio communication, and wherein the temporal spread of the redundant PDUs per batch depends on the latency requirement, and wherein the latency requirement corresponds to a time interval encompassing all the radio resources on which the redundant PDUs of the batch are transmitted.
A process for recovering wastes of a polymeric composition including at least one peroxide-curable polymer and at least one peroxidic crosslinking agent, which comprises compounding the wastes with at least one antioxidant agent suitable for sulfur-vulcanized elastomeric compositions, at a temperature lower than the decomposition temperature of the at least one peroxide crosslinking agent; wherein the at least one antioxidant agent is selected from: secondary phenylamines, and low molecular weight hindered phenols having a molecular weight lower than 1000; wherein the method includes the use of the recovered polymeric composition as filling material for electrical cable cores. secondary phenylamines, and low molecular weight hindered phenols having a molecular weight lower than 1000; wherein the method includes the use of the recovered polymeric composition as filling material for electrical cable cores.
A gas turbine engine section comprising a housing , and a plurality of panels attached to said housing , for facing toward a flow path of hot products of combustion, said panels including a central web and extending legs , with a bend between said central web and each of said extending legs , each bend formed at a radius, wherein a bend from said central web at a first end extends into one of said legs and leads to a foot which extends axially away from said web , and a bend into one of said legs at a second end of said panel having said leg positioned on a foot of an adjacent one of said panels , characterized in that each panel is provided with a coating, said coating entirely covering said panel .
A hydrogenated block copolymer comprising polymer blocks (A1) and (A2) each mainly containing an aromatic vinyl compound-derived structural unit and polymer blocks (B) and (C) each mainly containing a conjugated diene compound-derived structural unit, at least one of the polymer blocks (B) and (C) being present between the polymer blocks (A1) and (A2), the hydrogenated block copolymer having a total content of the polymer blocks (A1) and (A2) of 5 to 30% by mass, a 3,4-bond and 1,2-bond content in the polymer block (B) of 1 to 40% by mole, a 3,4-bond and 1,2-bond content in the polymer block (C) of 50 to 100% by mole, and a mass ratio [(C)/{(B)+(C)}] of the polymer block (C) to the sum of the polymer blocks (B) and (C) of 26/100 to 63/100. at least one of the polymer blocks (B) and (C) being present between the polymer blocks (A1) and (A2), the hydrogenated block copolymer having a total content of the polymer blocks (A1) and (A2) of 5 to 30% by mass, a 3,4-bond and 1,2-bond content in the polymer block (B) of 1 to 40% by mole, a 3,4-bond and 1,2-bond content in the polymer block (C) of 50 to 100% by mole, and a mass ratio [(C)/{(B)+(C)}] of the polymer block (C) to the sum of the polymer blocks (B) and (C) of 26/100 to 63/100.
A method, comprising: heating a wafer chuck , heating a first wafer , depositing a first epoxy along at least a portion of a surface of the first wafer disposed on the wafer chuck ; spinning the wafer chuck to spread the first epoxy at least partially across the first wafer ; placing a second wafer on the first epoxy disposed on the first wafer wherein a centering ring is used to suspend the second wafer over the epoxy ; and bonding the second wafer to the first epoxy under vacuum to form a two-wafer-bonded structure, wherein heating the first wafer comprises heating one of a controlled expansion (CE) wafer, a stainless steel wafer or a titanium wafer. heating a wafer chuck , heating a first wafer , depositing a first epoxy along at least a portion of a surface of the first wafer disposed on the wafer chuck ; spinning the wafer chuck to spread the first epoxy at least partially across the first wafer ; placing a second wafer on the first epoxy disposed on the first wafer wherein a centering ring is used to suspend the second wafer over the epoxy ; and bonding the second wafer to the first epoxy under vacuum to form a two-wafer-bonded structure, wherein heating the first wafer comprises heating one of a controlled expansion (CE) wafer, a stainless steel wafer or a titanium wafer.
Device intended to contain or make circulate an aqueous medium comprising - means intended to make boil and/or evaporate and/or heat the aqueous medium or means intended to cool the aqueous medium, - a reservoir intended to contain the aqueous medium and/or a system for circulating the aqueous medium, and possibly - a system for supplying with aqueous medium, the reservoir and/or the circulation system and/or the supply system comprising a scale-inhibiting agent, characterised in that the scale-inhibiting agent is a biodegradable agent at least partially soluble in water, and in that the biodegradable agent comprises at least one from caffeic acid, a carboxymethyl inulin, an aqueous plant extract selected from among the aqueous extracts of Spergularia, Arenaria, Parietaria, Hemiaria, a plant from the Moraceae family, a plant from the Poaceae family, or a plant from the Apiaceae family, said aqueous extract being obtained by grinding then infusion in water of the plant matter collected from said plants, and filtration to remove the residues from the infusion and to obtain an aqueous extract. - means intended to make boil and/or evaporate and/or heat the aqueous medium or means intended to cool the aqueous medium, - a reservoir intended to contain the aqueous medium and/or a system for circulating the aqueous medium, and possibly - a system for supplying with aqueous medium,
Vehicle wheel having a compressed-air-filled inner region and an outer region , wherein the outer region comprises a multiplicity of tyre components and at least a tread , and wherein the inner region has a compressed-air chamber with a tyre bead, wherein a suspension element in the form of a foam ring composed of at least one foam material is arranged in the central region between the compressed-air-filled inner region and the outer region ; characterized in that a sidewall in the form of a closure is arranged on the side of the foam ring , wherein the sidewall bridges the inner region and the outer region of the vehicle wheel. wherein the outer region comprises a multiplicity of tyre components and at least a tread , and wherein the inner region has a compressed-air chamber with a tyre bead, wherein a suspension element in the form of a foam ring composed of at least one foam material is arranged in the central region between the compressed-air-filled inner region and the outer region ; characterized in that a sidewall in the form of a closure is arranged on the side of the foam ring , wherein the sidewall bridges the inner region and the outer region of the vehicle wheel.
A cue comprising: a butt section , a joint collar and a shaft section terminating in a cue tip , the butt section having a bore having a length extending throughout an entire length of the butt section from a first end to a second end , the second end located at a distal end of the cue opposite the tip and having threads; a support tube secured in the bore of the butt section, having a tube length coextensive with the length of the bore and having a circular cross section; a weight system removably insertable into the support tube, the weight system including a carrier having a carrier length coextensive with the length of the support tube from a first end to a second end , the carrier slidably supporting one or more weights and two or more support washers thereon, wherein the one or more weights and the two or more washers may be set at different locations along the length of the carrier, the weight system further including a butt plate secured to the first end of the carrier, the butt plate including threads that engage the threads at the second end of the butt section such that the butt plate is secured to the second end of the butt section, thereby securing the weight system in the support tube; and wherein the carrier and butt plate are removable as a single piece from the support tube of the butt section. a butt section , a joint collar and a shaft section terminating in a cue tip , the butt section having a bore having a length extending throughout an entire length of the butt section from a first end to a second end , the second end located at a distal end of the cue opposite the tip and having threads; a support tube secured in the bore of the butt section, having a tube length coextensive with the length of the bore and having a circular cross section; a weight system removably insertable into the support tube, the weight system including a carrier having a carrier length coextensive with the length of the support tube from a first end to a second end , the carrier slidably supporting one or more weights and two or more support washers thereon, wherein the one or more weights and the two or more washers may be set at different locations along the length of the carrier, the weight system further including a butt plate secured to the first end of the carrier, the butt plate including threads that engage the threads at the second end of the butt section such that the butt plate is secured to the second end of the butt section, thereby securing the weight system in the support tube;
A knitting method, comprising: knitting a first course of a multi-bed knit structure on a first needle bed and a second needle bed ; transferring a first plurality of stitches of the first course of the multi-bed knit structure to different needles to widen an opening ; knitting a course of tensile material , including at least one stitch that interloops with the multi-bed knit structure and a float that spans the opening knitting a second course of the multi-bed knit structure on the first and second needle beds; and transferring a second plurality of stitches of the second course of the multi-bed knit structure to different needles to narrow the opening.
A fluid level sensor assembly comprising a first pipe component defining a flow path for the fluid and configured to be attached to a valve to control flow of the fluid from the first pipe component, and a fluid level sensor arranged in or on the first pipe component to detect a level of fluid in the first pipe component and to generate a command signal for operation of the valve according to the level detected, and an insert fitted to an end of the first pipe component and extending axially from the end to be fitted to an inlet of the valve, in use, wherein the insert is configured to secure the first pipe component against rotation relative to the valve inlet when the insert is fitted to the inlet; wherein the first pipe component is a wye fitting defining a first branch that defines the fluid path and a second branch in which the sensor is located, and wherein the wye-fitting is provided with a nozzle to direct fluid from an inlet end to the branch in which the sensor is located, the nozzle having a first opening at the inlet end and a second, smaller opening at an outlet end directed to the sensor..
A cartridge (B) to be used in an apparatus main body (A) of an image forming apparatus, the cartridge (B) comprising: a process unit to be used to form an image; a first member including a first resin material; a second member including a second resin material having higher flame retardant capability than the first resin material; and an electrode member including a contact section configured to be supplied with power from the apparatus main body (A) of the image forming apparatus, the electrode member being configured to electrically connect with the process unit , wherein the first member is a part of a frame of the cartridge (B), wherein the second resin material of the second member has a greater density than the first resin material of the first member , and at least a part of the second member is located at a position closer to the contact section than a part of the first member closest to the contact section and between the contact section and the part of the first member closest to the contact section . a process unit to be used to form an image; a first member including a first resin material; a second member including a second resin material having higher flame retardant capability than the first resin material; and an electrode member including a contact section configured to be supplied with power from the apparatus main body (A) of the image forming apparatus, the electrode member being configured to electrically connect with the process unit , wherein the first member is a part of a frame of the cartridge (B), wherein the second resin material of the second member has a greater density than the first resin material of the first member , and at least a part of the second member is located at a position closer to the contact section than a part of the first member closest to the contact section and between the contact section and the part of the first member closest to the contact section .
A manufacturing method comprising the steps of: providing a powdered material; providing an energy source that can produce an energy beam; directing the energy beam from the energy source toward an energy beam patterning unit to form a two-dimensional patterned energy beam ; directing the two-dimensional patterned energy beam against the powdered material to melt or sinter or fuse the powdered material to form a part having a temporary or permanent additively manufactured structure acting as a manipulation point ; additively forming optical guides or indicia on a projecting structure or the part ; and moving the part using a manipulator device to grasp the manipulation point , wherein the optical guide or indicia provides guidance of 3D positioning for engagement of the manipulator device with the part after movement, the moving comprising lifting the part by the manipulation point away from a power bed and setting the part on a designated processing area for further processing; wherein the manipulator device further comprises a robot arm . providing a powdered material; providing an energy source that can produce an energy beam; directing the energy beam from the energy source toward an energy beam patterning unit to form a two-dimensional patterned energy beam ; directing the two-dimensional patterned energy beam against the powdered material to melt or sinter or fuse the powdered material to form a part having a temporary or permanent additively manufactured structure acting as a manipulation point ; additively forming optical guides or indicia on a projecting structure or the part ; and moving the part using a manipulator device to grasp the manipulation point , wherein the optical guide or indicia provides guidance of 3D positioning for engagement of the manipulator device with the part after movement, the moving comprising lifting the part by the manipulation point away from a power bed and setting the part on a designated processing area for further processing; wherein the manipulator device further comprises a robot arm .
A laser ablation system comprising: a laser energy source configured to emit two or more laser outputs with different wavelengths, wherein the two or more laser outputs comprise a first laser output with a first wavelength and a second laser output with a second wavelength larger than the first wavelength; a laser applicator coupled to the laser energy source via a laser fiber and configured to output laser radiation at an ablation site; and a processor configured to: monitor temperature at the ablation site; and control the laser energy source to emit at least one of the two or more laser outputs to apply thermal energy across the ablation site using the different wavelengths, wherein emitted laser outputs are chosen based on a wavelength and a current temperature, characterized in that the processor is configured to cause the laser energy source to emit a greater amount of the second laser output than the first laser output when a center part of the ablation site approaches a maximum target temperature before an outer part of the ablation site reaches a minimum target temperature. a laser energy source configured to emit two or more laser outputs with different wavelengths, wherein the two or more laser outputs comprise a first laser output with a first wavelength and a second laser output with a second wavelength larger than the first wavelength; a laser applicator coupled to the laser energy source via a laser fiber and configured to output laser radiation at an ablation site; and a processor configured to: monitor temperature at the ablation site; and control the laser energy source to emit at least one of the two or more laser outputs to apply thermal energy across the ablation site using the different wavelengths, wherein emitted laser outputs are chosen based on a wavelength and a current temperature, characterized in that the processor is configured to cause the laser energy source to emit a greater amount of the second laser output than the first laser output when a center part of the ablation site approaches a maximum target temperature before an outer part of the ablation site reaches a minimum target temperature. monitor temperature at the ablation site; and control the laser energy source to emit at least one of the two or more laser outputs to apply thermal energy across the ablation site using the different wavelengths, wherein emitted laser outputs are chosen based on a wavelength and a current temperature, characterized in that the processor is configured to cause the laser energy source to emit a greater amount of the second laser output than the first laser output when a center part of the ablation site approaches a maximum target temperature before an outer part of the ablation site reaches a minimum target temperature.
A composition for use as a pharmaceutical comprising a salt of a di-protonated form of a polyamine of formula AMXT 1501: and a deprotonated capric acid, wherein the salt has two moles of deprotonated capric acid for each mole of protonated AMXT 1501, and is administered to a subject in conjunction with the administration of difluoromethylornithine (DFMO).
A method for assessing dependence of laser machining on laser light intensity, the method comprising the step of: acquiring machining state information showing a machining state by the laser machining at a machining position on a workpiece ; and characterized by the steps of : acquiring intensity distribution information showing intensity distribution of laser light at the machining position; and assessing dependence of the laser machining of the workpiece on the laser light intensity based on the machining state information and the intensity distribution information. acquiring intensity distribution information showing intensity distribution of laser light at the machining position; and assessing dependence of the laser machining of the workpiece on the laser light intensity based on the machining state information and the intensity distribution information.
A method for integrating an electronic component into a printed circuit board, wherein, onto a laminate at least consisting of a carrier or support layer , a conducting or conductive layer and a non-conducting or insulating layer , the electronic component comprising contacts oriented towards the insulating layer is fixed thereto, once the component has been fixed to the insulating layer , the carrier or protective layer is removed, thereby exposing the conducting layer and forming holes or perforations corresponding to the contacts of the component in the conducting layer and in the insulating layer , and the contacts are subsequently contacted with the conducting layer , characterized in that the formations of the holes or perforations in the conducting layer and in the insulating layer are performed in separate method steps after the fixation of the component , that prior to fixing the component to the insulating layer at least one marker is formed at least in the insulating layer for registering and aligning the component on the insulating layer , that the at least one marker is formed by a bore or perforation penetrating both the insulating layer and the conducting layer , that in addition to forming holes or perforations corresponding to the contacts of the component in the conducting layer and in the non-conducting layer at least one additional perforation is formed outside the region of the fixation of the component to the laminate for the formation of a subsequent feedthrough and/or for the formation of the contour of a circuit board element , and that the additional perforation is formed relative to the previously produced marker .