mhurhangee/patent-ind-claim-en huggingface dataset:
A method for assembling a fluid product dispensing pump, comprising the following steps: - providing a piston secured to an actuation rod ; - providing a pump body having a pump chamber ; - providing a second sleeve , advantageously secured to a fixing ring ; - providing an outlet valve element which slides during actuation in a sealed manner in the pump chamber ; - providing an inlet valve element which slides in a sleeve of the pump body , said sleeve having a reduced diameter with respect to the pump body ; - providing a spring ; said method comprising the following steps: - fixing said outlet valve element in said piston ; - inserting said piston and said outlet valve element in said second sleeve , said insertion being carried out from the bottom, in the direction of flow of the fluid during its expulsion; - inserting said spring and said inlet valve element into said sleeve of reduced diameter, said insertion being carried out from the top, in the direction opposite to the flow of the fluid during its expulsion, so as to wedge said spring between the bottom of said sleeve and said inlet valve element; - inserting said second sleeve into said pump body , said insertion being carried out from the top, in the direction opposite to the flow of the fluid during its expulsion. - providing a piston secured to an actuation rod ; - providing a pump body having a pump chamber ; - providing a second sleeve , advantageously secured to a fixing ring ; - providing an outlet valve element which slides during actuation in a sealed manner in the pump chamber ; - providing an inlet valve element which slides in a sleeve of the pump body , said sleeve having a reduced diameter with respect to the pump body ; - providing a spring ; - fixing said outlet valve element in said piston ; - inserting said piston and said outlet valve element in said second sleeve , said insertion being carried out from the bottom, in the direction of flow of the fluid during its expulsion; - inserting said spring and said inlet valve element into said sleeve of reduced diameter, said insertion being carried out from the top, in the direction opposite to the flow of the fluid during its expulsion, so as to wedge said spring between the bottom of said sleeve and said inlet valve element; - inserting said second sleeve into said pump body , said insertion being carried out from the top, in the direction opposite to the flow of the fluid during its expulsion.
A system for denervation comprising a catheter comprising a radially expandable member (110; 610; 710), the radially expandable member (110; 610; 710) comprising: an exterior surface ; a plurality of electrodes (112; 412; 512; 812) on the exterior surface configured for delivery of energy during a denervation procedure in a vessel; and a chemical agent coating (116; 416) on the exterior surface , wherein the chemical agent inhibits or prevents nerve regeneration; wherein the radially expandable member (110; 610; 710) is configured to have a first unexpanded configuration and a second expanded configuration, wherein the radially expandable member (110; 610; 710) is configured to bring the exterior surface in contact with a wall of a vessel when it is in the expanded configuration, and wherein the radially expandable member (110; 610; 710) is configured to contact a wall of a hepatic vessel when the radially expandable member (110; 610; 710) is in the expanded configuration. an exterior surface ; a plurality of electrodes (112; 412; 512; 812) on the exterior surface configured for delivery of energy during a denervation procedure in a vessel; and a chemical agent coating (116; 416) on the exterior surface , wherein the chemical agent inhibits or prevents nerve regeneration; wherein the radially expandable member (110; 610; 710) is configured to have a first unexpanded configuration and a second expanded configuration, wherein the radially expandable member (110; 610; 710) is configured to bring the exterior surface in contact with a wall of a vessel when it is in the expanded configuration, and wherein the radially expandable member (110; 610; 710) is configured to contact a wall of a hepatic vessel when the radially expandable member (110; 610; 710) is in the expanded configuration.
Process for manufacturing products made of multi-gradient foamed polymeric material, comprising the following steps: i. generating, via software, a virtual model (M) of a product to be manufactured in a solid foamable polymeric material; ii. assigning constraints and/or loads dictated by the use and performing a topological optimization via software of the virtual model (M) in order to obtain an optimized virtual model (MO) with areas of differentiated relative density and/or differentiated morphology; iii. preparing said foamable polymeric material; iv. inserting said foamable polymeric material into a mold ; v. solubilizing under pressure at least one foaming agent in the foamable polymeric material placed in the mold with a pressure profile of said at least one foaming agent variable over time and/or space as a function of the topological optimization; vi. releasing the pressure to produce a product (S) made of foamed polymeric material provided with said areas of differentiated relative density and/or differentiated morphology; and vii. removing the product (S) of foamed polymeric material from the mold . i. generating, via software, a virtual model (M) of a product to be manufactured in a solid foamable polymeric material; ii. assigning constraints and/or loads dictated by the use and performing a topological optimization via software of the virtual model (M) in order to obtain an optimized virtual model (MO) with areas of differentiated relative density and/or differentiated morphology; iii. preparing said foamable polymeric material; iv. inserting said foamable polymeric material into a mold ; v. solubilizing under pressure at least one foaming agent in the foamable polymeric material placed in the mold with a pressure profile of said at least one foaming agent variable over time and/or space as a function of the topological optimization; vi. releasing the pressure to produce a product (S) made of foamed polymeric material provided with said areas of differentiated relative density and/or differentiated morphology; and vii. removing the product (S) of foamed polymeric material from the mold .
Filter assembly suitable for filtering liquids and/or gases, comprising: - a filter housing having an inflow opening and an outflow opening for a liquid and/or gas, - a tubular filter element accommodated in the filter housing , said tubular filter having a longitudinal axis, an open first head end, an open second head end and a tube wall extending between said first head end and said second head end, said tube wall acting as a filter, - tensioning means for tensioning the filter element in the filter housing , characterized in that the filter assembly further comprises - a sealing element provided for closing said first head end, said sealing element being flat and having a first surface and second surface opposite said first surface, - a supporting collar provided at the inner wall of said filter housing for the sealing element , wherein the sealing element is clampable along said longitudinal axis against said first head end of the filter element and the supporting collar by means of the tensioning means , wherein the tensioning means are pressing said first surface of the sealing element along said longitudinal axis so as to press a first peripheral portion of said second surface on the supporting collar and another second portion of said second surface on said first head end. - a filter housing having an inflow opening and an outflow opening for a liquid and/or gas, - a tubular filter element accommodated in the filter housing , said tubular filter having a longitudinal axis, an open first head end, an open second head end and a tube wall extending between said first head end and said second head end, said tube wall acting as a filter, - tensioning means for tensioning the filter element in the filter housing , characterized in that the filter assembly further comprises - a sealing element provided for closing said first head end, said sealing element being flat and having a first surface and second surface opposite said first surface, - a supporting collar provided at the inner wall of said filter housing for the sealing element , wherein the sealing element is clampable along said longitudinal axis against said first head end of the filter element and the supporting collar by means of the tensioning means , wherein the tensioning means are pressing said first surface of the sealing element along said longitudinal axis so as to press a first peripheral portion of said second surface on the supporting collar and another second portion of said second surface on said first head end.
An electrically operated smoking device configured to receive a smoking article , comprising: a housing defining a cavity for at least partially receiving the smoking article; and a sensing system for detecting indicia on the smoking article, the sensing system positioned on a periphery of the cavity and comprising a light source , a mirror , an imaging lens and an image detector , wherein the mirror is positioned on an internal surface of the cavity adjacent to the light source and the imaging lens. a housing defining a cavity for at least partially receiving the smoking article; and a sensing system for detecting indicia on the smoking article, the sensing system positioned on a periphery of the cavity and comprising a light source , a mirror , an imaging lens and an image detector , wherein the mirror is positioned on an internal surface of the cavity adjacent to the light source and the imaging lens.
A method of performing a random access procedure by a user equipment in a wireless communication system, the method comprising: receiving (S2302) narrowband physical random access channel, NPRACH, configuration information; and transmitting (S2304) random access preambles repeatedly based on the received NPRACH configuration information, said method characterized in that subcarrier spacing for the random access preambles is set to 1.25 kHz, wherein each of the random access preambles comprises a plurality of symbol groups including symbol group 0, symbol group 1, symbol group 2, and symbol group 3, the plurality of symbol groups being transmitted based on frequency hopping within 36 subcarriers, and wherein, in each of the random access preambles, a frequency hopping distance between the symbol group 0 and the symbol group 1 and a frequency hopping distance between the symbol group 2 and the symbol group 3 are set to 1.25 kHz, and a frequency hopping distance between the symbol group 1 and the symbol group 2 is set to 6 ∗ 3.75 kHz, wherein a frequency hopping distance between the symbol group 3 in one of the random access preambles and the symbol group 0 in a next random access preamble is set to 3 ∗ 3.75 kHz. receiving (S2302) narrowband physical random access channel, NPRACH, configuration information; and transmitting (S2304) random access preambles repeatedly based on the received NPRACH configuration information, said method characterized in that subcarrier spacing for the random access preambles is set to 1.25 kHz, wherein each of the random access preambles comprises a plurality of symbol groups including symbol group 0, symbol group 1, symbol group 2, and symbol group 3, the plurality of symbol groups being transmitted based on frequency hopping within 36 subcarriers, and wherein, in each of the random access preambles, a frequency hopping distance between the symbol group 0 and the symbol group 1 and a frequency hopping distance between the symbol group 2 and the symbol group 3 are set to 1.25 kHz, and a frequency hopping distance between the symbol group 1 and the symbol group 2 is set to 6 ∗ 3.75 kHz, wherein a frequency hopping distance between the symbol group 3 in one of the random access preambles and the symbol group 0 in a next random access preamble is set to 3 ∗ 3.75 kHz.
A transformant comprising one or more foreign genes of one or more kinds selected from the group consisting of a phosphoenolpyruvate carboxykinase gene and a pyruvate carboxylase gene which are incorporated into a chromosome of Schizosaccharomyces pombe as a host, wherein a gene encoding pyruvate decarboxylase 2 in the host has been deleted or deactivated, the phosphoenolpyruvate carboxykinase gene encodes a polypeptide which includes an amino acid sequence represented by any of SEQ ID NOS: 94 to 113, or a polypeptide which includes an amino acid sequence sharing a sequence identity of equal to or higher than 80% with an amino acid sequence represented by any of SEQ ID NOS: 94 to 113 and has phosphoenolpyruvate carboxykinase activity, the pyruvate carboxylase gene encodes a polypeptide which includes an amino acid sequence represented by any of SEQ ID NOS: 1 to 16, or a polypeptide which includes an amino acid sequence sharing a sequence identity of equal to or higher than 80% with an amino acid sequence represented by any of SEQ ID NOS: 1 to 16 and has pyruvate carboxylase activity, and a gene encoding malic enzyme 2 in the host has further been deleted or deactivated.
Retaining device to retain in position a karabiner in a loop of a sling , the device comprising a hollow body having a first opening from which a first substantially straight channel (C1) extends for the insertion of a part of the sling provided with the loop inside the hollow body, and a second opening and a third opening connected one to another through a second channel (C2) for the passage of the karabiner , wherein the second channel (C2) for the passage of the karabiner extends along a path (K) at least partially curved between said second opening and said third opening , wherein the hollow body comprises an abutment wall arranged substantially opposing said first opening , and designed to retain at least part of the loop of the sling inside the hollow body, said abutment wall being in an intermediate position between said second opening and said third opening along the second channel (C2) for the passage of the karabiner.
A device for the treatment of calcified lesions, the device comprising: an elongated flexible tube being fillable with a conductive fluid; a support wire disposed within the elongated flexible tube ; and a first insulated wire , with a first end of the first insulated wire being connectable to a power source , the second end of the first insulated wire being coiled around the support wire ; a second insulated wire , with a first end of the second insulated wire being coiled around the support wire and interleaved with the second end of the first insulated wire , and with a region near the second end of the first wire and a region near the first end of the second wire being devoid of insulation to define a first electrode pair, and with the second end of the second insulated wire being coiled around the support wire in a region spaced from the first electrode pair; and a third insulated wire , with a first end of the third insulated wire being coiled around the support wire and interleaved with the second end of the second insulated wire , and with a region near the second end of the second wire and a region near the first end of the third wire being devoid of insulation to define a second electrode pair, and with the second end of the third insulated wire being connectable to the power source , said first and second electrode pairs being coupled in series, each of the first electrode pair and second electrode pair being configured as an arc-generating region and to generate shock waves when voltage pulses are applied to the insulated wires by the power source . an elongated flexible tube being fillable with a conductive fluid; a support wire disposed within the elongated flexible tube ; and a first insulated wire , with a first end of the first insulated wire being connectable to a power source , the second end of the first insulated wire being coiled around the support wire ; a second insulated wire , with a first end of the second insulated wire being coiled around the support wire and interleaved with the second end of the first insulated wire , and with a region near the second end of the first wire and a region near the first end of the second wire being devoid of insulation to define a first electrode pair, and with the second end of the second insulated wire being coiled around the support wire in a region spaced from the first electrode pair; and a third insulated wire , with a first end of the third insulated wire being coiled around the support wire and interleaved with the second end of the second insulated wire , and with a region near the second end of the second wire and a region near the first end of the third wire being devoid of insulation to define a second electrode pair, and with the second end of the third insulated wire being connectable to the power source , said first and second electrode pairs being coupled in series, each of the first electrode pair and second electrode pair being configured as an arc-generating region and to generate shock waves when voltage pulses are applied to the insulated wires by the power source .
A device for driving mechanical safety systems, comprising a housing , wherein at least one movable piston is arranged in the housing , which piston is connected to a first toothed rack , wherein the first toothed rack is operatively connected to a pinion , wherein a second toothed rack is movably arranged in the housing , which second toothed rack is also operatively connected to the pinion , and comprising a safety lever and a shift claw which is fastened to the second toothed rack and can actuate the safety lever during the movement of the second toothed rack .
A brake hydraulic pressure control apparatus for a vehicle , the brake hydraulic pressure control apparatus comprising: a base body formed with a channel of a brake fluid; a motor assembly that includes a rotor and a stator and drives a pump device provided in the channel ; a control board of a controller that controls the motor assembly ; and a housing that accommodates the control board , and further comprising: a permanent magnet that is attached to the motor assembly and rotates with the rotor ; a positioning mechanism that positions the motor assembly and the control board ; and a detection sensor that detects a magnetic field generated by the permanent magnet , wherein the motor assembly is arranged in a space that is surrounded by the base body and the housing , the control board is arranged in a rotation axis direction of the rotor in a manner to oppose the permanent magnet , and the detection sensor is mounted on the control board . a base body formed with a channel of a brake fluid; a motor assembly that includes a rotor and a stator and drives a pump device provided in the channel ; a control board of a controller that controls the motor assembly ; and a housing that accommodates the control board , and further comprising: a permanent magnet that is attached to the motor assembly and rotates with the rotor ; a positioning mechanism that positions the motor assembly and the control board ; and a detection sensor that detects a magnetic field generated by the permanent magnet , wherein the motor assembly is arranged in a space that is surrounded by the base body and the housing , the control board is arranged in a rotation axis direction of the rotor in a manner to oppose the permanent magnet , and the detection sensor is mounted on the control board . a permanent magnet that is attached to the motor assembly and rotates with the rotor ; a positioning mechanism that positions the motor assembly and the control board ; and a detection sensor that detects a magnetic field generated by the permanent magnet , wherein the motor assembly is arranged in a space that is surrounded by the base body and the housing , the control board is arranged in a rotation axis direction of the rotor in a manner to oppose the permanent magnet , and the detection sensor is mounted on the control board .
A device for the fragmentation of a calculus, comprising - a probe and - a drive unit for deflecting the probe along its longitudinal extension (LE), the drive unit comprising a first drive means for the periodic deflection of the probe and a second drive means for the pulsed deflection of the probe , the drive unit being configured such that an impact on the first drive means emanating from the second drive means is reduced, the first drive means acting on the probe via an oscillating member , characterized in that the second drive means acts on the probe via a baffle , the first drive means transmitting a force onto the oscillating member via a transmission region , the force causing the periodic oscillation, the transmission region being designed to be frequency-selective, in particular to be a low-pass filter, for attenuating pulsed oscillations, wherein the transmission region has a cross-sectional tapering, for example in the form of a washer , between a transmission body of the first drive means and the oscillating member , as a result of which the impact, in particular the force impact, from the second drive means onto the first drive means is reduced. - a probe and - a drive unit for deflecting the probe along its longitudinal extension (LE), the drive unit comprising a first drive means for the periodic deflection of the probe and a second drive means for the pulsed deflection of the probe , the drive unit being configured such that an impact on the first drive means emanating from the second drive means is reduced, the first drive means acting on the probe via an oscillating member , characterized in that the second drive means acts on the probe via a baffle , the first drive means transmitting a force onto the oscillating member via a transmission region , the force causing the periodic oscillation, the transmission region being designed to be frequency-selective, in particular to be a low-pass filter, for attenuating pulsed oscillations, wherein the transmission region has a cross-sectional tapering, for example in the form of a washer , between a transmission body of the first drive means and the oscillating member , as a result of which the impact, in particular the force impact, from the second drive means onto the first drive means is reduced.
A photovoltaic assembly comprising a frameless photovoltaic module comprising a laminated structure successively comprising: - a first protective layer , - an assembly encapsulating a plurality of photovoltaic cells interconnected to each other, - a second protective layer , - at least one collet mounted at the edge of the laminated structure , and - at least one spacer at least partially inserted into the laminated structure , characterised in that the spacer includes ∘ a first end inserted into a layer of encapsulating material and laminated within the laminated structure , and ∘ a second end for being blocked in the collet so as to make said spacer integral with said collet . - a first protective layer , - an assembly encapsulating a plurality of photovoltaic cells interconnected to each other, - a second protective layer , - at least one collet mounted at the edge of the laminated structure , and - at least one spacer at least partially inserted into the laminated structure , characterised in that the spacer includes ∘ a first end inserted into a layer of encapsulating material and laminated within the laminated structure , and ∘ a second end for being blocked in the collet so as to make said spacer integral with said collet . ∘ a first end inserted into a layer of encapsulating material and laminated within the laminated structure , and ∘ a second end for being blocked in the collet so as to make said spacer integral with said collet .