mhurhangee/ep-ind-claims huggingface dataset:
An endoscope connecting structure, comprising: an accommodating housing, provided therein with an accommodating space; a transmission element, slidably provided in the accommodating space; traction wire mounting elements (23, 24), respectively provided at two ends of the transmission element and located in the accommodating space; and traction wires (31, 32), wherein one end of each of the traction wires (31, 32) is fixedly connected to a corresponding one of the traction wire mounting elements (23, 24); characterized in that the accommodating housing is U-shaped, V-shaped or W-shaped and provided with a hollow structure; the hollow structure of the accommodating housing forms the accommodating space; the transmission element is slidable and rollable along an inner wall of the accommodating space; each of the two arms of the accommodating housing is provided at its external side with a wire passage (211, 212); and the traction wires (31, 32) are respectively connected to the traction wire mounting elements (23, 24) through the wire passages (211, 212). an accommodating housing, provided therein with an accommodating space; a transmission element, slidably provided in the accommodating space; traction wire mounting elements (23, 24), respectively provided at two ends of the transmission element and located in the accommodating space; and traction wires (31, 32), wherein one end of each of the traction wires (31, 32) is fixedly connected to a corresponding one of the traction wire mounting elements (23, 24); characterized in that the accommodating housing is U-shaped, V-shaped or W-shaped and provided with a hollow structure; the hollow structure of the accommodating housing forms the accommodating space; the transmission element is slidable and rollable along an inner wall of the accommodating space; each of the two arms of the accommodating housing is provided at its external side with a wire passage (211, 212); and the traction wires (31, 32) are respectively connected to the traction wire mounting elements (23, 24) through the wire passages (211, 212).
A method of controlling the heat energy output in local to regional housing structures, based on a ubiquitous sensor network by including a standardized heating cost allocation system comprising electronic heating cost allocators which are mounted on heating surfaces of a housing structure and include at least one first temperature sensor for detecting the temperature of the associated heating surface and a second temperature sensor for detecting the air temperature of the room in which the heating surface is located, wherein the measured values detected by the sensors of the sensor network, including the temperature sensors of the electronic heating cost allocators, are evaluated and included in the control of the heat energy output to the individual rooms of the housing structure in which heating surfaces are present, characterized in that the user of the respective housing unit sets a room temperature setpoint on an electronic heating cost allocator or on a control valve of a radiator with two opposite, preferably touch-sensitive input sensors by one or more double touches, wherein the currently set room temperature setpoint is indicated on a display as an absolute and/or relative value.
A method of Bandwidth Part, BWP, switching for a User Equipment, UE, in unpaired spectrum, characterize by comprising: when first Downlink Control Information, DCI, for scheduling a Physical Downlink Shared Channel, PDSCH, is not detected, resetting a timer in accordance with detected second DCI for scheduling a Physical Uplink Shared Channel, PUSCH; and when a reset timer is expired, switching a current BWP to a default BWP. when first Downlink Control Information, DCI, for scheduling a Physical Downlink Shared Channel, PDSCH, is not detected, resetting a timer in accordance with detected second DCI for scheduling a Physical Uplink Shared Channel, PUSCH; and when a reset timer is expired, switching a current BWP to a default BWP.
An end clamp for fixing a framed PV module on a support profile, the end clamp comprising a console element which can be fixed to the support profile, and comprising a clamp strap for holding down the frame of the PV module, the clamp strap having at least one clamping surface which can come into contact with the frame of the PV module in a clamping manner, and the clamp strap having a supporting surface which can laterally come into contact with a contact surface of the console element while supporting the clamp strap, and a turnbuckle engaging between the clamp strap and the console element, the turnbuckle being configured to tighten the clamp strap against the console element to hold down the frame of the PV module, at least one fixing element being provided at the supporting surface of the clamp strap, wherein the fixing element can be fixed in a positive and/or frictional manner to a complementarily shaped counter fixing element in the contact surface of the console element, the supporting surface of the clamp strap being precluded from approaching the support profile by the positive mechanical engagement and/or frictional connection between the fixing element and the counter fixing element, characterized in that the console element comprises two expanding hooks (22, 23) which are hinged in an elastic manner and which can be fixed in a recess of the support profile, wherein the expanding hooks (22, 23) each have a hook element (24, 25) which can engage behind the edge of the recess in a fixing manner, and wherein the two expanding hooks (22, 23) can be moved toward each other in an elastic manner in order to break the engagement of the hook elements (24, 25) on the edge of the recess, a gap being realized between the two expanding hooks (22, 23), the turnbuckle being inserted into said gap when the end clamp is tightened, wherein at least one blocking bar is formed on the inside of the expanding hooks (22, 23) pointing towards the turnbuckle, wherein a free end of the blocking bars can come into contact with the thread of the turnbuckle, thereby blocking the expanding hooks (22, 23) from being elastically moved toward each other.
A retreaded tire, comprising: a precured tread band bonded to a prepared bonding surface of a base portion of the tire, the base portion comprising a worn tread portion of the tire and the precured tread band comprising a primary tread groove having a top open to a ground contacting front face of the tread band and a secondary tread groove having a bottom open to a back face of the tread band, the back face bonded to the prepared bonding surface, wherein the groove top of the secondary tread groove is higher than a groove bottom of the primary tread groove so that the secondary groove top is opened to the ground contacting front face of the tread band prior to disappearance by wear of the primary tread groove; and a base tread groove formed in the base portion of the tire and open to the prepared bonding surface of the tire, wherein the secondary tread groove is arranged overtop the base tread groove, and such that the secondary groove bottom is in fluid communication with the base groove and such that the secondary tread groove and the base tread groove form a groove having a depth equal to a combined depth of the secondary tread groove and the base tread groove, where the secondary tread groove and the base tread groove each have a length extending in a direction of the length of the precured tread. a precured tread band bonded to a prepared bonding surface of a base portion of the tire, the base portion comprising a worn tread portion of the tire and the precured tread band comprising a primary tread groove having a top open to a ground contacting front face of the tread band and a secondary tread groove having a bottom open to a back face of the tread band, the back face bonded to the prepared bonding surface, wherein the groove top of the secondary tread groove is higher than a groove bottom of the primary tread groove so that the secondary groove top is opened to the ground contacting front face of the tread band prior to disappearance by wear of the primary tread groove; and a base tread groove formed in the base portion of the tire and open to the prepared bonding surface of the tire, wherein the secondary tread groove is arranged overtop the base tread groove, and such that the secondary groove bottom is in fluid communication with the base groove and such that the secondary tread groove and the base tread groove form a groove having a depth equal to a combined depth of the secondary tread groove and the base tread groove, where the secondary tread groove and the base tread groove each have a length extending in a direction of the length of the precured tread.
A method for laser marking an anodized metal surface with a desired colour, which method comprises: • providing a laser for emitting a laser beam comprising laser pulses having a pulse energy, a pulse width, and a pulse repetition frequency; • providing a scanner comprising a first mirror for scanning the laser beam in a first direction, and a second mirror for scanning the laser beam in a second direction; • providing a lens for focussing the laser beam from the laser onto the anodized metal surface to form a spot having a spot diameter and a pulse fluence; • providing a controller for controlling the scanner with a control signal; • marking a plurality of lines separated by a hatch distance on the anodized metal surface to form a desired mark by scanning the scanner while pulsing the laser; and • selecting a scan speed, the pulse repetition frequency, and the spot diameter such that the separation between consecutive spots during each scan of the scanner is at least one quarter of the spot diameter; the method being characterized by • overwriting each line more than once; • the colour being given by the spot to spot separation, the hatch distance, the pulse fluence, the pulse width, and the number of times each line is written; and • selecting the spot to spot separation, the hatch distance, the pulse fluence, the pulse width, and the number of times each line is written to form the desired colour. • providing a laser for emitting a laser beam comprising laser pulses having a pulse energy, a pulse width, and a pulse repetition frequency; • providing a scanner comprising a first mirror for scanning the laser beam in a first direction, and a second mirror for scanning the laser beam in a second direction; • providing a lens for focussing the laser beam from the laser onto the anodized metal surface to form a spot having a spot diameter and a pulse fluence; • providing a controller for controlling the scanner with a control signal; • marking a plurality of lines separated by a hatch distance on the anodized metal surface to form a desired mark by scanning the scanner while pulsing the laser; and • selecting a scan speed, the pulse repetition frequency, and the spot diameter such that the separation between consecutive spots during each scan of the scanner is at least one quarter of the spot diameter; • overwriting each line more than once; • the colour being given by the spot to spot separation, the hatch distance, the pulse fluence, the pulse width, and the number of times each line is written; and • selecting the spot to spot separation, the hatch distance, the pulse fluence, the pulse width, and the number of times each line is written to form the desired colour.
A method for spreading the spectrum of a clock train comprising: dividing a frequency of the clock train by a divider value that includes a fixed value plus a phase value to generate a dithered clock train; accumulating, by a frequency accumulator, the dithered clock train to generate a frequency modulated waveform; accumulating, by a phase accumulator, the frequency modulated waveform to generate a phase modulation signal and generate the phase value based on the phase modulation signal, the phase value indicating a difference in the phase modulation signal at different time points; tracking and locking onto a modulation of the dithered clock train; based on the tracking and locking steps, generating a spread-spectrum clock train that is the spread spectrum of the clock train. dividing a frequency of the clock train by a divider value that includes a fixed value plus a phase value to generate a dithered clock train; accumulating, by a frequency accumulator, the dithered clock train to generate a frequency modulated waveform; accumulating, by a phase accumulator, the frequency modulated waveform to generate a phase modulation signal and generate the phase value based on the phase modulation signal, the phase value indicating a difference in the phase modulation signal at different time points; tracking and locking onto a modulation of the dithered clock train; based on the tracking and locking steps, generating a spread-spectrum clock train that is the spread spectrum of the clock train.
A method of distributing single polymerase molecules into a plurality of array regions comprising: providing a surface comprising a plurality of zero mode waveguides (ZMWs), each ZMW comprising several binding elements and each ZMW is 250 nm or smaller in at least one dimension; and exposing the surface to a solution comprising polymerase enzymes, each polymerase enzyme bound to a binding structure comprising several functional moieties, whereby the functional moieties of the binding structure react with the binding elements in the ZMWs; and whereby in at least some of the ZMWs, the several functional moieties on a binding structure react with all of the available binding sites in a given ZMW, preventing other polymerase-binding structures from loading, and resulting in a single polymerase molecule bound to these ZMWs; wherein the binding structures comprise branched DNA, self-assembling multimers, dendrimers, dendrons, or branched polymers. providing a surface comprising a plurality of zero mode waveguides (ZMWs), each ZMW comprising several binding elements and each ZMW is 250 nm or smaller in at least one dimension; and exposing the surface to a solution comprising polymerase enzymes, each polymerase enzyme bound to a binding structure comprising several functional moieties, whereby the functional moieties of the binding structure react with the binding elements in the ZMWs; and whereby in at least some of the ZMWs, the several functional moieties on a binding structure react with all of the available binding sites in a given ZMW, preventing other polymerase-binding structures from loading, and resulting in a single polymerase molecule bound to these ZMWs; wherein the binding structures comprise branched DNA, self-assembling multimers, dendrimers, dendrons, or branched polymers.
A method to control lost circulation in a lost circulation zone in a wellbore comprising: introducing an altered drilling fluid into the well bore such that the altered drilling fluid contacts the lost circulation zone and reduces a rate of lost circulation into the lost circulation zone, where the altered drilling fluid comprises a drilling fluid and a lost circulation material, wherein the LCM comprises: a first plurality of untreated particles having a first particle size, wherein the first particle size comprises greater than 2380 microns; a second plurality of the untreated particles having a second particle size, wherein the second particle size comprises greater than 595 microns and less than 2381 microns; a third plurality of the untreated particles having a third particle size, wherein the third particle size comprises greater than 400 microns and less than 596 microns; a fourth plurality of the untreated particles having a fourth particle size, wherein the fourth particle size comprises less than 210 microns and greater than 148 microns; and a fifth plurality of the untreated particles having a fifth particle size, wherein the fifth particle size comprises less than 149 microns; wherein the untreated particles comprise ground date palm seeds. a first plurality of untreated particles having a first particle size, wherein the first particle size comprises greater than 2380 microns; a second plurality of the untreated particles having a second particle size, wherein the second particle size comprises greater than 595 microns and less than 2381 microns; a third plurality of the untreated particles having a third particle size, wherein the third particle size comprises greater than 400 microns and less than 596 microns; a fourth plurality of the untreated particles having a fourth particle size, wherein the fourth particle size comprises less than 210 microns and greater than 148 microns; and a fifth plurality of the untreated particles having a fifth particle size, wherein the fifth particle size comprises less than 149 microns; wherein the untreated particles comprise ground date palm seeds.
A delayed release oral formulation for enhanced intestinal oligonucleotide absorption, comprising: (a) a first population of carrier particles comprising said oligonucleotide and one or more penetration enhancers which facilitate transport of said oligonucleotide across intestinal mucosa, wherein upon administration of the formulation to an animal said oligonucleotide and said one or more penetration enhancers are released at a first location in the intestine; and (b) a second population of carrier particles comprising one or more penetration enhancers which facilitate transport of said oligonucleotide across intestinal mucosa, and a delayed release coating or delayed release matrix, wherein the second population of carrier particles does not contain said oligonucleotide, and wherein upon administration of the formulation to an animal said one or more penetration enhancers in the second population of particles is released at a second location in said intestine downstream from said first location, whereby absorption of said oligonucleotide is enhanced when said oligonucleotide reaches said second location. (a) a first population of carrier particles comprising said oligonucleotide and one or more penetration enhancers which facilitate transport of said oligonucleotide across intestinal mucosa, wherein upon administration of the formulation to an animal said oligonucleotide and said one or more penetration enhancers are released at a first location in the intestine; and (b) a second population of carrier particles comprising one or more penetration enhancers which facilitate transport of said oligonucleotide across intestinal mucosa, and a delayed release coating or delayed release matrix, wherein the second population of carrier particles does not contain said oligonucleotide, and wherein upon administration of the formulation to an animal said one or more penetration enhancers in the second population of particles is released at a second location in said intestine downstream from said first location, whereby absorption of said oligonucleotide is enhanced when said oligonucleotide reaches said second location.
A medical implant component comprising a composite biotextile, which biotextile comprises • A polyolefin fibrous construct comprises at least one strand with titer of 4-140 dtex, tensile strength of at least 10 cN/dtex and comprising high molar mass polyolefin fibers; and • A coating comprising a biocompatible and biostable polyurethane elastomer comprising a polysiloxane in soft segments; wherein the polyurethane coating has been applied to at least part of the surface of the fibrous construct, and is present in an amount of 2.5-90 mass% based on composite biotextile. • A polyolefin fibrous construct comprises at least one strand with titer of 4-140 dtex, tensile strength of at least 10 cN/dtex and comprising high molar mass polyolefin fibers; and • A coating comprising a biocompatible and biostable polyurethane elastomer comprising a polysiloxane in soft segments;
A device for producing a plasma in a chamber comprising means for producing an energy in the microwave spectrum for the excitation of the plasma, said means comprising at least one basic plasma excitation device comprising a coaxial applicator of microwave energy, of which one end is connected to a production source of microwave energy, the other end being directed to the gas to be excited within the chamber, each basic excitation device being arranged in the wall of the chamber, each applicator comprising a central core which is substantially flush with the wall of the chamber, the central core and the thickness of the wall of the chamber being separated by a space coaxial with the central core, this space being completely filled at least at the end of each applicator with a dielectric material such that said material is substantially flush with the level of the wall of the chamber, characterised in that it comprises a plurality of said basic plasma excitation devices arranged in a bidimensional net, the dielectric material filling the whole coaxial space of the central cores of the applicators of said basic devices.
An electrosurgical instrument comprising a circuit (9; 40), a measurement unit (28; 44), means to be connected to an electrosurgical generator, and at least two electrodes (12, 16a, 16b, 16c, 16d; 97, 98) for cutting or coagulation by an RF-frequency signal from the electrosurgical generator, where the circuit (9; 40) has means to switch the electrosurgical instrument between a measurement mode, wherein the measurement unit (28; 44) measures the impedance between the electrodes (12, 16a, 16b, 16c, 16d; 97, 98), and an operating mode, wherein the electrosurgical generator applies a voltage over the electrodes (12, 16a, 16b, 16c, 16d; 97, 98), characterised in that the circuit (9; 40) comprises a timer (28; 44) configured to periodically control the switching of the electrosurgical instrument between the measurement mode and the operating mode and in that the measurement unit is configured to measure the impedance between the electrodes by applying a DC signal.
Agent for lightening keratinic fibres, characterised in that it comprises in a cosmetic carrier (i) at least one cationic acyl pyridinium derivative of the Formula, in which R1 stands for a C 1 -C 6 alkyl group, a C 2 -C 6 alkenyl group, a C 2 -C 6 hydroxyalkyl group, a C 1 -C 6 alkoxy C 2 -C 6 alkyl group, a carboxy C 2 -C 6 alkyl group, an aryl C 1 -C 6 alkyl group, a heteroaryl C 1 -C 6 alkyl group, an aryl group or a heteroaryl group, R2, R3 and R4 each independently of one another stands for hydrogen, a C 1 -C 6 alkyl group, a halogen atom or a C 1 -C 6 acyl group, with the proviso that at least one of the R2, R3 and R4 residues stands for a C 1 -C 6 acyl group, X - stands for a physiologically acceptable anion, (ii) at least 5 wt % paraffin oil, based on the total weight of the agent and (iii) at least hydrogen peroxide as the oxidising agent. (i) at least one cationic acyl pyridinium derivative of the Formula, in which R1 stands for a C 1 -C 6 alkyl group, a C 2 -C 6 alkenyl group, a C 2 -C 6 hydroxyalkyl group, a C 1 -C 6 alkoxy C 2 -C 6 alkyl group, a carboxy C 2 -C 6 alkyl group, an aryl C 1 -C 6 alkyl group, a heteroaryl C 1 -C 6 alkyl group, an aryl group or a heteroaryl group, R2, R3 and R4 each independently of one another stands for hydrogen, a C 1 -C 6 alkyl group, a halogen atom or a C 1 -C 6 acyl group, with the proviso that at least one of the R2, R3 and R4 residues stands for a C 1 -C 6 acyl group, X - stands for a physiologically acceptable anion, R1 stands for a C 1 -C 6 alkyl group, a C 2 -C 6 alkenyl group, a C 2 -C 6 hydroxyalkyl group, a C 1 -C 6 alkoxy C 2 -C 6 alkyl group, a carboxy C 2 -C 6 alkyl group, an aryl C 1 -C 6 alkyl group, a heteroaryl C 1 -C 6 alkyl group, an aryl group or a heteroaryl group, R2, R3 and R4 each independently of one another stands for hydrogen, a C 1 -C 6 alkyl group, a halogen atom or a C 1 -C 6 acyl group, with the proviso that at least one of the R2, R3 and R4 residues stands for a C 1 -C 6 acyl group, X - stands for a physiologically acceptable anion, (ii) at least 5 wt % paraffin oil, based on the total weight of the agent and (iii) at least hydrogen peroxide as the oxidising agent.