mhurhangee/patent-ind-claim-en huggingface dataset:
An electrical connection component for a machine cable , the electrical connection component being suitable for transmission of power with voltage levels greater than or equal to 1 kV, the electrical connection component comprising: a cylindrical polymeric housing defining an internal region, and having a machine cable end and a connection end, an electrical contact assembly comprising at least three electrical pins each having a respective phase tube and earth connection, at least a portion of the electrical contact assembly being arranged at the connection end of the housing and being configured to be arranged for electrically coupling with a respective contact assembly of another connection component; and wherein the electrical component further comprises a removable inspection plug comprising at least three openings for receiving the at least three electricals pins therewithin, the inspection plug being disposed at least partially within the housing at the connection end; wherein when the inspection plug is entirely removed from the housing , at least a portion of the internal region is exposed to enable inspection of at least a portion of the electrical contact assembly while the electrical pins and respective phase tubes are retained in position, wherein, when the inspection plug is removed from the housing , a portion of the electrical contact assembly is made accessible for repair or replacement, and wherein the portion of the electrical contact assembly made accessible for repair or replacement comprises a connection portion between the electrical contact assembly and a core of the machine cable . a cylindrical polymeric housing defining an internal region, and having a machine cable end and a connection end, an electrical contact assembly comprising at least three electrical pins each having a respective phase tube and earth connection, at least a portion of the electrical contact assembly being arranged at the connection end of the housing and being configured to be arranged for electrically coupling with a respective contact assembly of another connection component; and wherein the electrical component further comprises a removable inspection plug comprising at least three openings for receiving the at least three electricals pins therewithin, the inspection plug being disposed at least partially within the housing at the connection end; wherein when the inspection plug is entirely removed from the housing , at least a portion of the internal region is exposed to enable inspection of at least a portion of the electrical contact assembly while the electrical pins and respective phase tubes are retained in position, wherein, when the inspection plug is removed from the housing , a portion of the electrical contact assembly is made accessible for repair or replacement, and wherein the portion of the electrical contact assembly made accessible for repair or replacement comprises a connection portion between the electrical contact assembly and a core of the machine cable .
A method to perform an accurate correlation between a first set of data, collected from a first source, and a second set of data, collected from a second source, in the presence of noise in one or both of said first and second sets of data, where the data is data from digitized images, and where the noise is caused by the quality of the underlying signal and the detection and digitization of the signal, where the calculation of the correlation is performed by a computer, wherein a third set of data is collected from said first source under the same conditions as the conditions of the collection of said first set of data, wherein a fourth set of data is collected from said second source under the same conditions as the conditions of the collection of said second set of data, wherein a measured correlation value (rm) between data collected from said first source and said second source is taken as: - one of the correlation measurements out of the possible combinations of said first and second set of data (r12), said first and fourth set of data (r14), said third and second set of data (r32) and said third and fourth set of data (r34), or - the mean value of at least two of correlation measurements between said first and second set of data (r12), said first and fourth set of data (r14), said third and second set of data (r32) and said third and fourth set of data (r34), wherein a correction value (C12) is calculated based on a correlation measurement between said first and third set of data (r13) and a correlation measurement between said second and fourth set of data (r24) according to the following expression: C 12 = 1 r 13 × r 24 and wherein said correction value (C12) is applied to said measured correlation value (rm) resulting in a corrected correlation value (rc) according to the expression rc = rm x C12. - one of the correlation measurements out of the possible combinations of said first and second set of data (r12), said first and fourth set of data (r14), said third and second set of data (r32) and said third and fourth set of data (r34), or - the mean value of at least two of correlation measurements between said first and second set of data (r12), said first and fourth set of data (r14), said third and second set of data (r32) and said third and fourth set of data (r34),
A clamping chuck comprising - a coupling section , - a receiving section having a recess , - a sleeve , which can be inserted into the recess of the receiving section and has a wall , which serves to receive a tool , and comprising - a securing device for axially securing a tool inside the sleeve , wherein - the securing device has a bolt , which is supported in a recess in the wall of the sleeve and can be moved at an acute angle, preferably essentially in the vertical direction to the longitudinal extension of the sleeve , and that - the length of the bolt , measured perpendicular to the longitudinal extension of the sleeve , is greater than the thickness of the wall , characterised in that - an outer side of the bolt is aligned with an outer circumferential surface of the sleeve , and that - the outer side of the bolt is ground cylindrically. - a coupling section , - a receiving section having a recess , - a sleeve , which can be inserted into the recess of the receiving section and has a wall , which serves to receive a tool , and comprising - a securing device for axially securing a tool inside the sleeve , wherein - the securing device has a bolt , which is supported in a recess in the wall of the sleeve and can be moved at an acute angle, preferably essentially in the vertical direction to the longitudinal extension of the sleeve , and that - the length of the bolt , measured perpendicular to the longitudinal extension of the sleeve , is greater than the thickness of the wall , characterised in that - an outer side of the bolt is aligned with an outer circumferential surface of the sleeve , and that - the outer side of the bolt is ground cylindrically.
A machine for stabilizing a track , including a machine frame supported on on-track undercarriages and a vertically adjustable stabilizing unit designed to roll on rails of the track by means of unit rollers , the stabilizing unit comprising a vibration exciter with rotating imbalance masses for generating an impact force (Fs) acting dynamically in a track plane perpendicularly to a track longitudinal direction and a vertical drive for generating a vertical load acting on the track , characterized in that the vibration exciter comprises at least four rotatable imbalance masses of which two imbalance masses in each case are driveable right-turning and two imbalance masses are driveable left-turning, that the right-turning imbalance masses and the left-turning imbalance masses each forming an imbalance mass pair are driveable applying a first phase shift (Δφ 1 ) which is variably adjustable with respect to an initial position, that the two left-turning imbalance masses are driveable with a variably adjustable second phase shift (Δφ 2 ) to one another, and that the two right-turning imbalance masses are driveable with a variably adjustable second phase shift (Δφ 2 ) to one another.
Aqueous agrochemical composition comprising a) suspended particles of dimpropyridaz; and b) lignosulfonate. a) suspended particles of dimpropyridaz; and b) lignosulfonate.
An endoscope optical subassembly comprising: an optical tube containing one or more optical lens components, a scope body , characterized in that the endoscope optical subassembly further comprises a flexible diaphragm coupled to and between the optical tube and the scope body , and an illumination tube through which the optical tube extends, wherein the illumination tube is coupled to the scope body and axially spaced-apart from the flexible diaphragm . an optical tube containing one or more optical lens components, a scope body , characterized in that the endoscope optical subassembly further comprises a flexible diaphragm coupled to and between the optical tube and the scope body , and an illumination tube through which the optical tube extends, wherein the illumination tube is coupled to the scope body and axially spaced-apart from the flexible diaphragm .
Reverse osmosis system having a first membrane unit and at least a second membrane unit , the membrane units forming a chain of membrane units, the first membrane unit having a first membrane separating a first feed chamber and a first permeate chamber , a first inlet connected to the first feed chamber , a first permeate outlet connected to the first permeate chamber , and a first concentrate outlet connected to the first feed chamber , the second membrane unit having a second membrane separating a second feed chamber and a second permeate chamber , a second inlet connected to the second feed chamber , a second permeate outlet connected to the second permeate chamber , and a second concentrate outlet connected to the second feed chamber , wherein the concentrate outlet of a membrane unit in the chain of membrane units is connected to an inlet of a following membrane unit and a concentrate outlet of at least one membrane unit downstream the first membrane unit in the chain of membrane units is connected to a hydraulic motor , wherein the hydraulic motor is operatively connected to a first electric machine , characterized in that the first electric machine is electrically connected to at least a second electric machine operatively connected to a pump located in a flow path upstream of one of the membrane units , wherein the hydraulic motor and the first electric machine form a generator drive , wherein the generator drive is configured to actively control the recovery rate of the reverse osmosis system and recuperate energy from a fluid stream passing through the hydraulic motor , wherein the generator drive is operable in two modes, a motor mode and a generator mode.
A urinary drainage catheter comprising: an elongated flexible catheter body shaped and configured to allow advancement into a patient's bladder through the patient's urethra; the catheter body having a distal end and proximal end and a drainage lumen extending from the distal to the proximal end of the catheter body providing a urine drainage path when the distal end of the catheter is positioned in the patient's bladder; at least one deployable anchor positioned near the distal end of the catheter body, the anchor configured to hold the catheter in place when the anchor is deployed in the bladder; and at least one nerve stimulation electrode positioned near the distal end of the catheter body, the nerve stimulation electrode configured and positioned on the catheter body to deliver a high frequency current to the patient's pudendal nerve to relax the patient's urinary sphincter as the distal end of the catheter body approaches the urinary sphincter so that the catheter body may be advanced through the urinary sphincter and into the bladder with reduced resistance force. an elongated flexible catheter body shaped and configured to allow advancement into a patient's bladder through the patient's urethra; the catheter body having a distal end and proximal end and a drainage lumen extending from the distal to the proximal end of the catheter body providing a urine drainage path when the distal end of the catheter is positioned in the patient's bladder; at least one deployable anchor positioned near the distal end of the catheter body, the anchor configured to hold the catheter in place when the anchor is deployed in the bladder; and at least one nerve stimulation electrode positioned near the distal end of the catheter body, the nerve stimulation electrode configured and positioned on the catheter body to deliver a high frequency current to the patient's pudendal nerve to relax the patient's urinary sphincter as the distal end of the catheter body approaches the urinary sphincter so that the catheter body may be advanced through the urinary sphincter and into the bladder with reduced resistance force.
Needle arrangement configured to be assembled into a drug delivery device adapted to receive a medicament cartridge, the needle arrangement comprising a distal needle tip and a proximal needle tip adapted to pierce a septum of the medicament cartridge, further comprising a distal needle holder and a proximal needle holder , a fluid channel and a spring , wherein the distal needle tip is held in the distal needle holder and wherein the proximal needle tip is held in the proximal needle holder , wherein the distal needle tip and the proximal needle tip are in fluid communication with each other through the fluid channel , wherein the fluid channel is adapted to allow axial movement of the distal needle tip and relative to the proximal needle tip between a compact state (S 1) and an extended state (S2), wherein a length of the needle arrangement over the distal needle tip and the proximal needle tip in the extended state (S2) is greater than in the compact state (S 1), wherein the distal needle tip and the proximal needle tip are telescoped one within the other creating the fluid channel , wherein the spring is arranged between the distal needle holder and the proximal needle holder biasing the needle arrangement towards the expanded state (S2), wherein the distal needle tip is adapted to be inserted into an injection site, characterized in that the proximal needle holder has a guiding surface (4.1) and the distal needle holder has a guiding surface (5.1), both guiding surfaces (4.1, 5.1) being adapted to be guided by corresponding surfaces within a drug delivery device, and in that the spring is adapted to act in two directions to pierce the septum of the medicament cartridge and to pierce the injection site.
An elongate implantable intraocular physiological measurement device for implantation, at least in part, in the supraciliary/suprachoroidal space of a human eye, comprising: a sensing module configured to measure intraocular pressure in an anterior chamber of an eye; a transmitter and antenna configured to wirelessly transmit measurements from the sensing module to an external device; a battery to supply operating power to at least one of the sensing module , the transmitter, and antenna ; a housing configured to house the sensing module , the transmitter and antenna, and the battery; and an anchoring member configured to fix the device within the supraciliary/suprachoroidal space. a sensing module configured to measure intraocular pressure in an anterior chamber of an eye; a transmitter and antenna configured to wirelessly transmit measurements from the sensing module to an external device; a battery to supply operating power to at least one of the sensing module , the transmitter, and antenna ; a housing configured to house the sensing module , the transmitter and antenna, and the battery; and an anchoring member configured to fix the device within the supraciliary/suprachoroidal space.
A power control method, wherein the method comprises: a user equipment determining whether information in a Transmit Power Control, TPC, field in first Downlink Control Information, DCI, format is a non-TPC command after receiving the first DCI format; and the user equipment performing Physical Uplink Control Channel, PUCCH, power control with a TPC command in second DCI format when the information in the TPC field in the first DCI format is a non-TPC command and the user equipment receives the second DCI format in a downlink sub-frame in which the first DCI format is received; wherein after the user equipment determines whether the information in the TPC field in first DCI format is a non-TPC command, the method further comprises: when the information in the TPC field in the first DCI format is a TPC command, the user equipment performing Physical Uplink Control Channel, PUCCH, power control with the TPC command in the first DCI format; and when the information in the TPC field in the first DCI format is a non-TPC command and the user equipment does not receive second DCI format in the downlink sub-frame in which the first DCI format is received, the user equipment determining an adjustment value of PUCCH power as zero. a user equipment determining whether information in a Transmit Power Control, TPC, field in first Downlink Control Information, DCI, format is a non-TPC command after receiving the first DCI format; and the user equipment performing Physical Uplink Control Channel, PUCCH, power control with a TPC command in second DCI format when the information in the TPC field in the first DCI format is a non-TPC command and the user equipment receives the second DCI format in a downlink sub-frame in which the first DCI format is received; wherein after the user equipment determines whether the information in the TPC field in first DCI format is a non-TPC command, the method further comprises: when the information in the TPC field in the first DCI format is a TPC command, the user equipment performing Physical Uplink Control Channel, PUCCH, power control with the TPC command in the first DCI format; and when the information in the TPC field in the first DCI format is a non-TPC command and the user equipment does not receive second DCI format in the downlink sub-frame in which the first DCI format is received, the user equipment determining an adjustment value of PUCCH power as zero. when the information in the TPC field in the first DCI format is a TPC command, the user equipment performing Physical Uplink Control Channel, PUCCH, power control with the TPC command in the first DCI format; and when the information in the TPC field in the first DCI format is a non-TPC command and the user equipment does not receive second DCI format in the downlink sub-frame in which the first DCI format is received, the user equipment determining an adjustment value of PUCCH power as zero.
Eye tracking device , in particular for the detection of a driver's visual behaviour, comprising an illuminator for illuminating a person's eye, an imaging device for detecting light reflected by the person's eye, and a cover for covering the illuminator and the imaging device , the cover comprising a light leak prevention structure for preventing light leaks between the illuminator and the imaging device through the cover , said light leak prevention structure being provided by at least a surface section of a cover portion being made of a material permeable to light emitted from the illuminator .
In vitro use of lyso-Gb1 as a druggable target in the development of a drug for the prevention and/or treatment of a disease, wherein the drug directly interacts with the target resulting in the treatment and/or prevention of the disease, wherein the disease is Gaucher disease or Parkinson's disease caused by mutation of glucocerebrosidase (GBA).
Rotary pressure filter , comprising: - a filter drum , at which a material to be filtered is filtered, wherein a filter cake is formed on a surface of the filter drum , and - a housing , which surrounds the filter drum and in which the filter drum is rotatably mounted, wherein a sensor is attached to the housing , which is configured to emit light through a light-permeable section of the housing in the direction of the filter cake and to receive light reflected from the filter cake through the light-permeable section of the housing , wherein the rotary pressure filter further comprises a processing unit configured to compare properties of the emitted light with those of the received light and to determine an absolute thickness of the filter cake and/or a change in the thickness of the filter cake over a predetermined time, characterized in that the sensor is arranged outside of a process chamber of the rotary pressure filter , in which a filtration process takes place and which is configured to exhibit a pressure deviating from an external environment of the rotary pressure filter and/or a temperature deviating from an external environment of the rotary pressure filter . - a filter drum , at which a material to be filtered is filtered, wherein a filter cake is formed on a surface of the filter drum , and - a housing , which surrounds the filter drum and in which the filter drum is rotatably mounted, wherein a sensor is attached to the housing , which is configured to emit light through a light-permeable section of the housing in the direction of the filter cake and to receive light reflected from the filter cake through the light-permeable section of the housing , wherein the rotary pressure filter further comprises a processing unit configured to compare properties of the emitted light with those of the received light and to determine an absolute thickness of the filter cake and/or a change in the thickness of the filter cake over a predetermined time, characterized in that the sensor is arranged outside of a process chamber of the rotary pressure filter , in which a filtration process takes place and which is configured to exhibit a pressure deviating from an external environment of the rotary pressure filter and/or a temperature deviating from an external environment of the rotary pressure filter .
A method of manufacturing an animal litter composition comprising: (i) feeding perlite particles having a bulk density in the range of 25-200 kg/m 3 into a coater; (ii) adding a liquid to the coater to create wet perlite particles; and (iii) feeding bentonite having a size range of 149 μm(100 mesh) to 44 μm (300 mesh) into the coater to coat the wet perlite particles; characterized in that the method further comprises: (iv) contacting the coated perlite particles with water; and (v) drying the coated particles to a moisture content in the range of 5% to 25%. (i) feeding perlite particles having a bulk density in the range of 25-200 kg/m 3 into a coater; (ii) adding a liquid to the coater to create wet perlite particles; and (iii) feeding bentonite having a size range of 149 μm(100 mesh) to 44 μm (300 mesh) into the coater to coat the wet perlite particles; (iv) contacting the coated perlite particles with water; and (v) drying the coated particles to a moisture content in the range of 5% to 25%.