mhurhangee/patent-ind-claim-en huggingface dataset:
A hair implant suitable for subcutaneous implantation, comprising: (a) an anchor comprising: (i) an anchor body ; and (ii) at least one collagen receiving structure selected from the group consisting of at least one tunnel disposed through the anchor body and an external surface feature of the anchor body ; and (b) at least one hair strand projecting from a distal end of the anchor body , wherein the at least one collagen receiving structure is configured to support collagen ligature growth after subcutaneous implantation of the hair implant so as to anchor the anchor to a hair implant recipient and wherein the anchor comprises silicone; the anchor is configured for subcutaneous implantation; the anchor comprises a fracture line configured to facilitate fracturing of the anchor along the fracture line for ease of removal of the implant after subcutaneous implantation; the anchor is configured to provide a scaffold for collagen growth after subcutaneous implantation; the hair implant comprises at least two hair strands ; and at least one of the at least two hair strands is joined to the anchor on one side of the fracture line and at least one of the at least two hair strands is joined to the anchor on an opposite side of the fracture line such that each fragment formed by fracturing the implant comprises at least one of the at least two hair strands . (a) an anchor comprising: (i) an anchor body ; and (ii) at least one collagen receiving structure selected from the group consisting of at least one tunnel disposed through the anchor body and an external surface feature of the anchor body ; and (i) an anchor body ; and (ii) at least one collagen receiving structure selected from the group consisting of at least one tunnel disposed through the anchor body and an external surface feature of the anchor body ; and (b) at least one hair strand projecting from a distal end of the anchor body , wherein the at least one collagen receiving structure is configured to support collagen ligature growth after subcutaneous implantation of the hair implant so as to anchor the anchor to a hair implant recipient and wherein the anchor comprises silicone; the anchor is configured for subcutaneous implantation; the anchor comprises a fracture line configured to facilitate fracturing of the anchor along the fracture line for ease of removal of the implant after subcutaneous implantation; the anchor is configured to provide a scaffold for collagen growth after subcutaneous implantation; the hair implant comprises at least two hair strands ; and at least one of the at least two hair strands is joined to the anchor on one side of the fracture line and at least one of the at least two hair strands is joined to the anchor on an opposite side of the fracture line such that each fragment formed by fracturing the implant comprises at least one of the at least two hair strands .
An electric actuator , comprising: a motor ; a motor case configured to accommodate the motor ; and a motion conversion mechanism configured to convert a rotary motion generated through drive by the motor into a linear motion in a direction parallel to an output shaft of the motor , wherein the motion conversion mechanism comprises a movable part , which is arranged in parallel with the output shaft and is configured to perform the linear motion, wherein the movable part and the motor overlap one another in a radial direction of the motor , wherein a sensor target is arranged on the moveable part , and wherein a non-contact sensor configured to detect a position of the sensor target in a linear motion direction in a non-contact manner is arranged in the motor case , characterized in that a shaft cover configured to cover a periphery of the movable part is provided integrally with the motor case , and in that the non-contact sensor is mounted to a retreating portion, which is formed between a case main body out of the motor case and the shaft cover at a location, in which an outer peripheral surface of the motor case inwardly retreats. a motor ; a motor case configured to accommodate the motor ; and a motion conversion mechanism configured to convert a rotary motion generated through drive by the motor into a linear motion in a direction parallel to an output shaft of the motor , wherein the motion conversion mechanism comprises a movable part , which is arranged in parallel with the output shaft and is configured to perform the linear motion, wherein the movable part and the motor overlap one another in a radial direction of the motor , wherein a sensor target is arranged on the moveable part , and wherein a non-contact sensor configured to detect a position of the sensor target in a linear motion direction in a non-contact manner is arranged in the motor case , characterized in that a shaft cover configured to cover a periphery of the movable part is provided integrally with the motor case , and in that the non-contact sensor is mounted to a retreating portion, which is formed between a case main body out of the motor case and the shaft cover at a location, in which an outer peripheral surface of the motor case inwardly retreats.
A device for monitoring the tightness of a sealing component for a fluid storage tank, in which the monitoring device includes a box comprising: - a peripheral partition having a peripheral wall with a lower end fitted with a peripheral seal designed to be positioned against the sealing component , - a cover made of a transparent material, the cover being linked to the peripheral partition such that the cover and the peripheral wall are able to define an internal chamber with the sealing component , the peripheral seal being arranged about the entire internal chamber , and in which the monitoring device includes: - a handling handle fastened to the box , - a control member actuated manually to generate a control signal , the control member being positioned on or in the immediate vicinity of the handling handle to enable a user holding the handling handle to actuate the control member, - a pressure-reducing device that is connected to the internal chamber and is designed to reduce the pressure in said internal chamber using a pressure-reducing member , the pressure-reducing device being provided with a controlled valve that can be switched to an open state to link the internal chamber to the pressure-reducing member , and to a closed state to isolate the internal chamber from the pressure-reducing member , - a control unit designed to switch the controlled valve in response to the control signal . - a peripheral partition having a peripheral wall with a lower end fitted with a peripheral seal designed to be positioned against the sealing component , - a cover made of a transparent material, the cover being linked to the peripheral partition such that the cover and the peripheral wall are able to define an internal chamber with the sealing component , the peripheral seal being arranged about the entire internal chamber , and in which the monitoring device includes: - a handling handle fastened to the box , - a control member actuated manually to generate a control signal , the control member being positioned on or in the immediate vicinity of the handling handle to enable a user holding the handling handle to actuate the control member, - a pressure-reducing device that is connected to the internal chamber and is designed to reduce the pressure in said internal chamber using a pressure-reducing member , the pressure-reducing device being provided with a controlled valve that can be switched to an open state to link the internal chamber to the pressure-reducing member , and to a closed state to isolate the internal chamber from the pressure-reducing member , - a control unit designed to switch the controlled valve in response to the control signal .
A connector shroud, comprising: an inner housing having a grooved control link formed on an outer surface, the grooved control link having a first section , a second section , and a third section that communicate with each other, the second section extending in a longitudinal direction ; a coupling nut sleeved onto the inner housing , the coupling nut being configured to be coupled to an object; and a lock nut sleeved onto the inner housing , the lock nut comprising a pin formed on an inner surface, the pin being movable in the grooved control link , wherein when the pin is in the second section , pulling the lock nut causes the lock nut to move away from the coupling nut , and when the pin is in the first section or the third section , twisting the lock nut causes the coupling nut to rotate. an inner housing having a grooved control link formed on an outer surface, the grooved control link having a first section , a second section , and a third section that communicate with each other, the second section extending in a longitudinal direction ; a coupling nut sleeved onto the inner housing , the coupling nut being configured to be coupled to an object; and a lock nut sleeved onto the inner housing , the lock nut comprising a pin formed on an inner surface, the pin being movable in the grooved control link , wherein when the pin is in the second section , pulling the lock nut causes the lock nut to move away from the coupling nut , and when the pin is in the first section or the third section , twisting the lock nut causes the coupling nut to rotate.
A process for producing powder particles by atomization of a feed material in the form of an elongated member, comprising: introducing the feed material in an inductively coupled plasma torch via an injection probe ; continuously advancing the feed material into the plasma torch for moving a forward portion of the feed material into an atomization nozzle of the plasma torch; surface melting a forward end of the feed material by exposure to one or more plasma jets formed in the atomization nozzle , the one or more plasma jets being selected from an annular plasma jet, a plurality of converging plasma jets, and a combination thereof; and freezing in-flight, within a cooling chamber , droplets formed by atomization of the feed material . introducing the feed material in an inductively coupled plasma torch via an injection probe ; continuously advancing the feed material into the plasma torch for moving a forward portion of the feed material into an atomization nozzle of the plasma torch; surface melting a forward end of the feed material by exposure to one or more plasma jets formed in the atomization nozzle , the one or more plasma jets being selected from an annular plasma jet, a plurality of converging plasma jets, and a combination thereof; and freezing in-flight, within a cooling chamber , droplets formed by atomization of the feed material .
A compound represented by Formula I or a pharmaceutical acceptable salt thereof for use in preventing and/or treating osteoporosis in a subject in need thereof, wherein formula I is: wherein A is C 5 alkyl, C 6 alkyl, C 5 alkenyl, C 6 alkenyl, C(O)-(CH 2 ) n -CH 3 or CH(OH)-(CH 2 ) n -CH 3 wherein n is 3 or 4; R 1 is H, F or OH; R 2 is H, F, OH, C 5 alkyl, C 6 alkyl, C 5 alkenyl, C 6 alkenyl, C(O)-(CH 2 ) n -CH 3 or CH(OH)-(CH 2 ) n -CH 3 wherein n is 3 or 4; R 3 is H, F, OH or CH 2 Ph; R 4 is H, F or OH; Q is 1) (CH 2 ) m C(O)OH wherein m is 1 or 2, 2) CH(F)-C(O)OH, 3) CF 2 -C(O)OH, or 4) C(O)-C(O)OH. A is C 5 alkyl, C 6 alkyl, C 5 alkenyl, C 6 alkenyl, C(O)-(CH 2 ) n -CH 3 or CH(OH)-(CH 2 ) n -CH 3 wherein n is 3 or 4; R 1 is H, F or OH; R 2 is H, F, OH, C 5 alkyl, C 6 alkyl, C 5 alkenyl, C 6 alkenyl, C(O)-(CH 2 ) n -CH 3 or CH(OH)-(CH 2 ) n -CH 3 wherein n is 3 or 4; R 3 is H, F, OH or CH 2 Ph; R 4 is H, F or OH; Q is 1) (CH 2 ) m C(O)OH wherein m is 1 or 2, 2) CH(F)-C(O)OH, 3) CF 2 -C(O)OH, or 4) C(O)-C(O)OH. 1) (CH 2 ) m C(O)OH wherein m is 1 or 2, 2) CH(F)-C(O)OH, 3) CF 2 -C(O)OH, or 4) C(O)-C(O)OH.
A physical downlink control channel, PDCCH, monitoring method by a user equipment, UE, comprising: receiving high layer signaling including PDCCH monitoring configuration information for the target active downlink BWP on a current active downlink BWP, wherein the PDCCH monitoring configuration information indicates relationship between PDCCH monitoring configuration for the current active downlink BWP and PDCCH monitoring configuration for the target active downlink BWP; determining the PDCCH monitoring configuration for the target active downlink BWP, based on the relationship, after a current active downlink BWP is switched to the target active downlink BWP;performing a monitoring process on the PDCCH based on the PDCCH monitoring configuration for the target active downlink BWP, wherein the PDCCH monitoring configuration for the target active downlink BWP comprises at least one of the followings: a periodicity of PDCCH monitoring; the number of PDCCH monitoring times; an aggregation level, AL, of a control channel unit, CCE, of PDCCH monitoring. receiving high layer signaling including PDCCH monitoring configuration information for the target active downlink BWP on a current active downlink BWP, wherein the PDCCH monitoring configuration information indicates relationship between PDCCH monitoring configuration for the current active downlink BWP and PDCCH monitoring configuration for the target active downlink BWP; determining the PDCCH monitoring configuration for the target active downlink BWP, based on the relationship, after a current active downlink BWP is switched to the target active downlink BWP;performing a monitoring process on the PDCCH based on the PDCCH monitoring configuration for the target active downlink BWP, wherein the PDCCH monitoring configuration for the target active downlink BWP comprises at least one of the followings: a periodicity of PDCCH monitoring; the number of PDCCH monitoring times; an aggregation level, AL, of a control channel unit, CCE, of PDCCH monitoring. a periodicity of PDCCH monitoring; the number of PDCCH monitoring times; an aggregation level, AL, of a control channel unit, CCE, of PDCCH monitoring.
A process for manufacturing a ceramic matrix composite part, comprising at least: - infiltrating a fibrous structure comprising a powder composition with a melt infiltration composition comprising at least silicon in order to form a ceramic matrix in the porosity of the fibrous structure, the powder composition comprising at least silicon carbide particles, wherein the silicon carbide particles have a bimodal size distribution with a first set (E1) of silicon carbide particles having a first average size (TM1) and a second set (E2) of silicon carbide particles having a second average size (TM2) smaller than the first average size, the number of particles in the first set being greater than the number of particles in the second set, wherein the first average size (TM1), determined by a laser diffraction method, is comprised between 1 μm and 5 μm wherein the second average size (TM2), determined by a laser diffraction method, is comprised between 0.1 μm and 1 μm. - infiltrating a fibrous structure comprising a powder composition with a melt infiltration composition comprising at least silicon in order to form a ceramic matrix in the porosity of the fibrous structure, the powder composition comprising at least silicon carbide particles, wherein the first average size (TM1), determined by a laser diffraction method, is comprised between 1 μm and 5 μm wherein the second average size (TM2), determined by a laser diffraction method, is comprised between 0.1 μm and 1 μm.
A system comprising: a cryogen source in fluid communication with a cryogen delivery device ; one or more adjustable pressure valves configured to adjust a pressure of the cryogen source in response to a control signal; and a controller configured to: receive an indication of a target pressure, measure the pressure of the cryogen source during an operation of the cryogen delivery device, determine whether the measured pressure matches the target pressure, determine a current rate of change of pressure of the cryogen source, adjust the control signal based on the measuring of the pressure of the cryogen source, the target pressure, the current rate of change of pressure of the cryogen source, and a pressure history of the cryogen source; and adjust the pressure of the cryogen source towards the target pressure via the one or more adjustable pressure valves in response to the control signal. a cryogen source in fluid communication with a cryogen delivery device ; one or more adjustable pressure valves configured to adjust a pressure of the cryogen source in response to a control signal; and a controller configured to: receive an indication of a target pressure, measure the pressure of the cryogen source during an operation of the cryogen delivery device, determine whether the measured pressure matches the target pressure, determine a current rate of change of pressure of the cryogen source, adjust the control signal based on the measuring of the pressure of the cryogen source, the target pressure, the current rate of change of pressure of the cryogen source, and a pressure history of the cryogen source; and adjust the pressure of the cryogen source towards the target pressure via the one or more adjustable pressure valves in response to the control signal. receive an indication of a target pressure, measure the pressure of the cryogen source during an operation of the cryogen delivery device, determine whether the measured pressure matches the target pressure, determine a current rate of change of pressure of the cryogen source, adjust the control signal based on the measuring of the pressure of the cryogen source, the target pressure, the current rate of change of pressure of the cryogen source, and a pressure history of the cryogen source; and adjust the pressure of the cryogen source towards the target pressure via the one or more adjustable pressure valves in response to the control signal.
A system , comprising: a probe for insertion into a lumen of a patient , wherein the probe is coupled to an irrigation pump ; a bubble detection sub-system disposed proximate an outlet of the irrigation pump ; a processor , which is configured to control delivery of irrigation fluid to the probe by turning on and controlling the irrigation pump ; a bubble detector coupled to a proximal portion of the probe , wherein, in response to the irrigation pump being turned on, the bubble detector is configured to: automatically start detection of gas bubbles in the irrigated fluid; and transmit fail-safe signals indicating fail-safe bubble detection is operational; and wherein the processor is further configured to monitor the fail-safe signals and, in absence of fail-safe signals, to automatically disable delivery of the irrigation fluid. a probe for insertion into a lumen of a patient , wherein the probe is coupled to an irrigation pump ; a bubble detection sub-system disposed proximate an outlet of the irrigation pump ; a processor , which is configured to control delivery of irrigation fluid to the probe by turning on and controlling the irrigation pump ; a bubble detector coupled to a proximal portion of the probe , wherein, in response to the irrigation pump being turned on, the bubble detector is configured to: automatically start detection of gas bubbles in the irrigated fluid; and transmit fail-safe signals indicating fail-safe bubble detection is operational; and automatically start detection of gas bubbles in the irrigated fluid; and transmit fail-safe signals indicating fail-safe bubble detection is operational; and wherein the processor is further configured to monitor the fail-safe signals and, in absence of fail-safe signals, to automatically disable delivery of the irrigation fluid.
Truck-mounted concrete pump comprising at least one rear pivotable leg and at least one front pivotable leg , wherein the front pivotable leg comprises a leg box and at least one inner part that is telescopic with respect thereto, and wherein the rear pivotable leg comprises an outer part having a upper and a lower limb, between which the inner part of the front pivotable leg can be mounted in a state telescoped and pivoted in, characterised in that the two limbs are coupled together by means of at least one diagonal bracing , wherein the lower limb of the rear pivotable leg is connected diagonally, on the outside thereof, by a lower articulation point of the rear pivotable leg , to the leg-side end of the upper limb , and/or in the reverse direction.
A sampling system , comprising: a controller assembly including a socket ; a filter cassette designed to filter cerebrospinal fluid and configured to be housed in the socket , the filter cassette having an inlet region configured to be coupled to a catheter and configured to receive cerebrospinal fluid, one or more filters, and an outlet region configured to be coupled to an outlet of the catheter and to direct filtered cerebrospinal fluid to the catheter; a sampling port in fluid communication with the filter cassette ; wherein the sampling port has a first end region configured to receive cerebrospinal fluid, a stopcock , a syringe port , and a second end region ; and wherein the stopcock is configured to shift between a first position where cerebrospinal fluid is directed from the first end region to the second end region and a second position where cerebrospinal fluid is directed from the first end region to the syringe port . a controller assembly including a socket ; a filter cassette designed to filter cerebrospinal fluid and configured to be housed in the socket , the filter cassette having an inlet region configured to be coupled to a catheter and configured to receive cerebrospinal fluid, one or more filters, and an outlet region configured to be coupled to an outlet of the catheter and to direct filtered cerebrospinal fluid to the catheter; a sampling port in fluid communication with the filter cassette ; wherein the sampling port has a first end region configured to receive cerebrospinal fluid, a stopcock , a syringe port , and a second end region ; and wherein the stopcock is configured to shift between a first position where cerebrospinal fluid is directed from the first end region to the second end region and a second position where cerebrospinal fluid is directed from the first end region to the syringe port .
A vessel sealing device , comprising: a pair of electrodes that are moveable between open and closed positions; and a coating (38; 138) formed from a non-conductive material applied non-uniformly to both of the pair of electrodes, characterized in that the coating is applied non-uniformly such that the coating on each of the pair of electrodes has a total profile that varies between -5.8 micrometers and 6.2 micrometers from a centerline average and has a roughness profile that varies between -6.5 micrometers and 6.5 micrometers from a centerline average, such that each of the pair of electrodes has a non-uniform topological surface with thick-coating regions and thin-coating regions and that radiofrequency energy will only pass between the pair of electrodes if a vessel is positioned therebetween and comes into contact with thin coating regions of the pair of electrodes. a pair of electrodes that are moveable between open and closed positions; and a coating (38; 138) formed from a non-conductive material applied non-uniformly to both of the pair of electrodes, characterized in that the coating is applied non-uniformly such that the coating on each of the pair of electrodes has a total profile that varies between -5.8 micrometers and 6.2 micrometers from a centerline average and has a roughness profile that varies between -6.5 micrometers and 6.5 micrometers from a centerline average, such that each of the pair of electrodes has a non-uniform topological surface with thick-coating regions and thin-coating regions and that radiofrequency energy will only pass between the pair of electrodes if a vessel is positioned therebetween and comes into contact with thin coating regions of the pair of electrodes.