mhurhangee/patent-ind-claim-en huggingface dataset:
A band comprising: a tubular body having an inner surface and an outer surface and defining a central passage , wherein the tubular body is configured to be worn on a user's body such that a portion of the user's body is received in the central passage , the tubular body comprising a first layer and a second layer of elastic fabric material; and a housing formed of a polymer material and formed separately from the tubular body , wherein the housing is connected to the tubular body such that a portion of the housing is positioned between the first and second layers, wherein the rigidity of the housing is greater than the rigidity of the fabric material of the tubular body , wherein the housing defines a cavity and an access opening providing access to the cavity , wherein the housing is configured to removably receive an electronic module in the cavity through the access opening, and the housing further comprises a slot in communication with the cavity , the slot configured to permit passage of moisture away from the housing . a tubular body having an inner surface and an outer surface and defining a central passage , wherein the tubular body is configured to be worn on a user's body such that a portion of the user's body is received in the central passage , the tubular body comprising a first layer and a second layer of elastic fabric material; and a housing formed of a polymer material and formed separately from the tubular body , wherein the housing is connected to the tubular body such that a portion of the housing is positioned between the first and second layers, wherein the rigidity of the housing is greater than the rigidity of the fabric material of the tubular body , wherein the housing defines a cavity and an access opening providing access to the cavity , wherein the housing is configured to removably receive an electronic module in the cavity through the access opening, and the housing further comprises a slot in communication with the cavity , the slot configured to permit passage of moisture away from the housing .
A curable resin composition comprising an epoxy resin (A), blocked urethane (C), and an amine-based latent curing agent (D), wherein the blocked urethane (C) is obtained by reacting a urethane polymer having a terminal isocyanate group with a blocking agent (C-4), the urethane polymer being obtained by reacting a polyisocyanate (C-1), a diol (C-2), and a branching agent (C-3) containing at least three groups that react with an isocyanate group, the ratio (number of NCO groups / number of NCO reactive groups) between the number of moles of isocyanate groups in the component (C-1) (number of NCO groups) and the total number of moles of hydroxyl groups in the component (C-2) and groups that react with an isocyanate group in the component (C-3) (number of NCO reactive groups) is from 1.4 to 1.6, and the proportion of the number of moles of groups that react with an isocyanate group in the component (C-3) is from 1 to 50% of the total number of moles of hydroxyl groups in the component (C-2) and groups that react with an isocyanate group in the component (C-3). wherein the blocked urethane (C) is obtained by reacting a urethane polymer having a terminal isocyanate group with a blocking agent (C-4), the urethane polymer being obtained by reacting a polyisocyanate (C-1), a diol (C-2), and a branching agent (C-3) containing at least three groups that react with an isocyanate group, the ratio (number of NCO groups / number of NCO reactive groups) between the number of moles of isocyanate groups in the component (C-1) (number of NCO groups) and the total number of moles of hydroxyl groups in the component (C-2) and groups that react with an isocyanate group in the component (C-3) (number of NCO reactive groups) is from 1.4 to 1.6, and the proportion of the number of moles of groups that react with an isocyanate group in the component (C-3) is from 1 to 50% of the total number of moles of hydroxyl groups in the component (C-2) and groups that react with an isocyanate group in the component (C-3).
Connection arrangement comprising a corrugated pipe , a connecting piece and an adapter , wherein the corrugated pipe is formed from a metal material and has a cross section with corrugation crests and corrugation troughs which follow one another in alternating fashion, the connecting piece is formed from a ductile pipe section, and the adapter , consisting of a metal pipe section, is introduced into the end of the corrugated pipe so as to axially continue the latter and is materially bonded with the corrugated pipe , and the corrugated pipe with the adapter is plugged into the connecting piece , characterized in that the connecting piece has a smaller inside diameter than the outside diameter of the corrugated pipe and has a widened inside diameter towards its end in order to receive the corrugated pipe and the adapter , the connecting piece is circumferentially pressed with the plugged-in corrugated pipe , and the adapter is materially bonded along its outer surface with the inner surface of the connecting piece , and the corrugated pipe is materially bonded, in the region of at least one corrugation trough thereof, with the adapter .
A computer-implemented method for generating a graphical user interface indicating viewer states of a shared portion of a screen content of a sharer, the shared portion of the screen content being visually shared with a plurality of viewers over a distributed network, the computer-implemented method comprising: identifying the shared portion of the screen content that is being shared with client devices of the plurality of viewers; receiving, from each client device of the plurality of viewers, a snapshot image generated on the client device and corresponding to a state of the shared portion currently displayed on a screen of the client device; identifying, based on a comparison of the received snapshot images and the shared portion, whether the viewers are synchronized with respect to the sharer; and applying a policy based on whether the viewers are synchronized with respect to the sharer, wherein applying the policy comprises displaying, using the received snapshot images, a visual summary of the shared portion as currently displayed on screens of the plurality of viewers, the visual summary including a visual indication of identified viewers that are not synchronized with respect to the sharer. identifying the shared portion of the screen content that is being shared with client devices of the plurality of viewers; receiving, from each client device of the plurality of viewers, a snapshot image generated on the client device and corresponding to a state of the shared portion currently displayed on a screen of the client device; identifying, based on a comparison of the received snapshot images and the shared portion, whether the viewers are synchronized with respect to the sharer; and applying a policy based on whether the viewers are synchronized with respect to the sharer, wherein applying the policy comprises displaying, using the received snapshot images, a visual summary of the shared portion as currently displayed on screens of the plurality of viewers, the visual summary including a visual indication of identified viewers that are not synchronized with respect to the sharer.
A method, comprising: providing a wellhead housing having an alignment feature ; landing a tubing hanger alignment gasket onto the top of the wellhead housing using the alignment feature of the wellhead housing, wherein the tubing hanger alignment gasket comprises a guidance feature ; and landing a tubing hanger in the wellhead housing at a desired orientation via engagement with the guidance feature of the tubing hanger alignment gasket during landing. providing a wellhead housing having an alignment feature ; landing a tubing hanger alignment gasket onto the top of the wellhead housing using the alignment feature of the wellhead housing, wherein the tubing hanger alignment gasket comprises a guidance feature ; and landing a tubing hanger in the wellhead housing at a desired orientation via engagement with the guidance feature of the tubing hanger alignment gasket during landing.
An aircraft wing structure, comprising: a skin defining an aerodynamic surface; a structural element disposed in an interior volume of the aircraft wing structure at least partly defined by the skin ; and a temperature monitoring unit removably installed as a unit in the interior volume the aircraft wing structure, comprising: a support frame removably installed to said structural element ; and a temperature-sensitive device for monitoring a temperature condition over a span of said wing structure, the temperature sensitive device being attached to the support frame , wherein said structural element defines a channel within said interior volume, and said support frame is slidably received in said channel. a skin defining an aerodynamic surface; a structural element disposed in an interior volume of the aircraft wing structure at least partly defined by the skin ; and a temperature monitoring unit removably installed as a unit in the interior volume the aircraft wing structure, comprising: a support frame removably installed to said structural element ; and a temperature-sensitive device for monitoring a temperature condition over a span of said wing structure, the temperature sensitive device being attached to the support frame , wherein said structural element defines a channel within said interior volume, and said support frame is slidably received in said channel. a support frame removably installed to said structural element ; and a temperature-sensitive device for monitoring a temperature condition over a span of said wing structure, the temperature sensitive device being attached to the support frame , wherein said structural element defines a channel within said interior volume, and said support frame is slidably received in said channel.
A high-strength steel plate, consisting of the following chemical elements in mass percentages: C: 0.070-0.115%, Si: 0.20-0.50%, Mn: 1.80-2.30%, Mo: 0.10-0.40%, Nb: 0.03-0.06%, V: 0.03-0.06%, Ti: 0.002-0.04%, Al: 0.01-0.08%, B: 0.0006-0.0020%, N≤0.0060%, O≤0.0040%, Ca: 0-0.0045%, and the balance of Fe and unavoidable impurities; wherein the high-strength steel plate's microstructures are bainite lath and martensite; the high-strength steel plate has a carbon equivalent value CEV≤0.56%, wherein the carbon equivalent value CEV= C+Mn/6+(Cr+Mo+V)/5+(Ni+Cu)/15; the high-strength steel plate has a welding crack sensitivity index Pcm≤0.27%, wherein the welding crack sensitivity index Pcm= C+ Si/30+ Ni/60+ (Mn+Cr+ Cu)/20 + Mo/15 +V/10+5B; the high-strength steel plate has a hardenability coefficient Qm of 3.4<Qm<4.2, wherein Qm=1.379C + 0.218Si+ 1.253Mn+ 2.113Mo+ 0.879Cr+ 101.21B; and the high-strength steel plate has a yield strength of 890MPa or more. C: 0.070-0.115%, Si: 0.20-0.50%, Mn: 1.80-2.30%, Mo: 0.10-0.40%, Nb: 0.03-0.06%, V: 0.03-0.06%, Ti: 0.002-0.04%, Al: 0.01-0.08%, B: 0.0006-0.0020%, N≤0.0060%, O≤0.0040%, Ca: 0-0.0045%, and the balance of Fe and unavoidable impurities; wherein the high-strength steel plate's microstructures are bainite lath and martensite; the high-strength steel plate has a carbon equivalent value CEV≤0.56%, wherein the carbon equivalent value CEV= C+Mn/6+(Cr+Mo+V)/5+(Ni+Cu)/15; the high-strength steel plate has a welding crack sensitivity index Pcm≤0.27%, wherein the welding crack sensitivity index Pcm= C+ Si/30+ Ni/60+ (Mn+Cr+ Cu)/20 + Mo/15 +V/10+5B; the high-strength steel plate has a hardenability coefficient Qm of 3.4<Qm<4.2, wherein Qm=1.379C + 0.218Si+ 1.253Mn+ 2.113Mo+ 0.879Cr+ 101.21B; and the high-strength steel plate has a yield strength of 890MPa or more.
Adapter for mounting a capsule-type ultrasonic measurement cell , having a measurement channel equipped with ultrasonic sensors , intended to be mounted on a tank having an inlet pipe and an outlet pipe of aligned type, wherein the rectilinear and aligned inlet pipe and outlet pipe lead directly into the interior of the tank, this additional adapter connecting said inlet pipe to the inlet of said measurement channel and said outlet pipe to the outlet of said measurement channel , and having a bent tubular channel intended to be connected to the mouth of said inlet pipe and to the inlet of said measurement channel, and having a second bent tubular channel intended to be connected to the mouth of said outlet pipe and to the outlet of said measurement channel, said adapter being characterized in that said bent channels are curved channels having a perfectly progressive shape, with, at one of their ends, a circular section (S1) corresponding to and close to the section of the inlet and outlet pipes of the tank and, at the other of their ends, an oblong section (S2) corresponding to and close to the section of the inlet and outlet orifices of the measurement cell, this circular section being greater than this oblong section.
A biomaterial used in the medical field generated by synthesizing raw material in the form of powder with powder metallurgy in biotechnology/biomedical technology field characterized by being a monticellite (CaMgSiO 4 ) based bioactive ceramic material comprising monticellite, calcium borosilicate and strontium silicate and synthesized by using boron waste powders as starting material containing mainly CaO, MgO, Na 2 O, B 2 O 3 and SiO 2 compounds, high amounts of dolomite [CaMg(CO 3 ) 2 ], calcite[CaCO 3 ], tincalconit [Na 2 B 4 O 7 -5H 2 O], free quartz [SiO 2 ] phases and small amounts of strontium carbonate [SrCO3].
A core shell microcapsule having a liquid core and an outer shell, in which the liquid core comprises solvent and a piroctone compound and the shell comprises polyurea formed from monomeric units of aliphatic isocyanates and amines.
An electronic watch , comprising: a step motor ; a normal pulse generator circuit configured to output a normal pulse for driving the step motor ; a detection pulse generator circuit configured to output, after the step motor has been driven with the normal pulse, a detection pulse for detecting whether or not the step motor has been rotated; a pulse selection circuit configured to selectively output the normal pulse and the detection pulse; a driver circuit configured to load a pulse output from the pulse selection circuit on the step motor ; a rotation detector circuit configured to input a detection signal generated from the detection pulse, and to determine whether or not the step motor has been rotated; and a frequency selection circuit configured to determine a driving interval of the normal pulse, wherein: the detection pulse generator circuit is configured to output the detection pulse so as to divide the detection pulse into predetermined segments; and the rotation detector circuit is configured to conduct detection separately in each detection segment corresponding to the predetermined segments, and to instruct the frequency selection circuit to select a frequency corresponding to the detection segment in which the detection signal has been detected. a step motor ; a normal pulse generator circuit configured to output a normal pulse for driving the step motor ; a detection pulse generator circuit configured to output, after the step motor has been driven with the normal pulse, a detection pulse for detecting whether or not the step motor has been rotated; a pulse selection circuit configured to selectively output the normal pulse and the detection pulse; a driver circuit configured to load a pulse output from the pulse selection circuit on the step motor ; a rotation detector circuit configured to input a detection signal generated from the detection pulse, and to determine whether or not the step motor has been rotated; and a frequency selection circuit configured to determine a driving interval of the normal pulse, wherein: the detection pulse generator circuit is configured to output the detection pulse so as to divide the detection pulse into predetermined segments; and the rotation detector circuit is configured to conduct detection separately in each detection segment corresponding to the predetermined segments, and to instruct the frequency selection circuit to select a frequency corresponding to the detection segment in which the detection signal has been detected. the detection pulse generator circuit is configured to output the detection pulse so as to divide the detection pulse into predetermined segments; and the rotation detector circuit is configured to conduct detection separately in each detection segment corresponding to the predetermined segments, and to instruct the frequency selection circuit to select a frequency corresponding to the detection segment in which the detection signal has been detected.
A secure random number generation system including a plurality of secure computation apparatuses and generating a concealed value of a random number, the random number following a binomial distribution, the secure computation apparatuses (1 1 , ..., 1 n ) each comprising: a storage unit adapted to store a pseudorandom function and at least one set of a key and a plurality of polynomials; a pseudorandom number generating unit adapted to obtain a pseudorandom number for each of the keys by computing the pseudorandom function using the key; a bit counting unit adapted to count the number of 1s included in each pseudorandom number; and a random number share generating unit adapted to obtain the sum of products of the number of 1s and an output of the polynomial corresponding to the number of 1s as a share of the random number, an output unit adapted to output the share of the random number, wherein the set of all output shares is the concealed value. a storage unit adapted to store a pseudorandom function and at least one set of a key and a plurality of polynomials; a pseudorandom number generating unit adapted to obtain a pseudorandom number for each of the keys by computing the pseudorandom function using the key; a bit counting unit adapted to count the number of 1s included in each pseudorandom number; and a random number share generating unit adapted to obtain the sum of products of the number of 1s and an output of the polynomial corresponding to the number of 1s as a share of the random number,
A method of operating a centrifugal separator for separating at least one liquid phase and a sludge phase from a liquid feed mixture, wherein said centrifugal separator comprises a frame , a drive member and a centrifuge bowl , wherein the drive member is configured to rotate the centrifuge bowl in relation to the frame around an axis of rotation (X), and wherein centrifuge bowl encloses a separation space and a sludge space ; wherein the separation space comprises a stack of separation discs arranged coaxially around the axis of rotation (X) and wherein said sludge space is arranged radially outside said stack of separation discs; wherein the centrifuge bowl further comprises an inlet for receiving the liquid feed mixture, at least one liquid outlet for a separated liquid phase, and sludge outlets for a separated sludge phase arranged at the periphery of the centrifuge bowl ; wherein the method comprises the steps of a) supplying a liquid feed mixture to be separated to the inlet of the centrifuge bowl , b) determining a particle flow rate of the liquid feed mixture being supplied in step a), c) determining a volume filled with particles within the centrifuge bowl based on the measurements of step b), and d) discharging a sludge phase comprising said particles via said sludge outlets based on the determination of step b), wherein the discharge is of a specific volume or at a specific time point. a frame , a drive member and a centrifuge bowl , wherein the drive member is configured to rotate the centrifuge bowl in relation to the frame around an axis of rotation (X), and wherein centrifuge bowl encloses a separation space and a sludge space ; wherein the separation space comprises a stack of separation discs arranged coaxially around the axis of rotation (X) and wherein said sludge space is arranged radially outside said stack of separation discs; wherein the centrifuge bowl further comprises an inlet for receiving the liquid feed mixture, at least one liquid outlet for a separated liquid phase, and sludge outlets for a separated sludge phase arranged at the periphery of the centrifuge bowl ; wherein the method comprises the steps of a) supplying a liquid feed mixture to be separated to the inlet of the centrifuge bowl , b) determining a particle flow rate of the liquid feed mixture being supplied in step a), c) determining a volume filled with particles within the centrifuge bowl based on the measurements of step b), and d) discharging a sludge phase comprising said particles via said sludge outlets based on the determination of step b), wherein the discharge is of a specific volume or at a specific time point. a) supplying a liquid feed mixture to be separated to the inlet of the centrifuge bowl , b) determining a particle flow rate of the liquid feed mixture being supplied in step a), c) determining a volume filled with particles within the centrifuge bowl based on the measurements of step b), and d) discharging a sludge phase comprising said particles via said sludge outlets based on the determination of step b), wherein the discharge is of a specific volume or at a specific time point.
A beam scanning apparatus with arrayed rotating mirrors, characterized in that the beam scanning apparatus comprises: a motor , a worm , a wormgear , a mounting rack , and at least two sets of rotating mirrors , wherein the worm and the wormgear are located on the mounting rack , and engage with each other by using a gear for a linkage connection; the rotating mirrors are located in the mounting rack , and each rotating mirror is coaxially connected to one corresponding wormgear , the sets of rotating mirrors rotate synchronously; the motor is configured to drive the worm to rotate, to drive the wormgear and the rotating mirror to rotate coaxially; and the rotating mirror comprises a rotating mirror portion and rotating mirror bases (5a and 5b) that are respectively connected to two ends of the rotating mirror portion , bearings (6a and 6b) that are rotatably connected to the mounting rack are respectively disposed on the two rotating mirror bases (5a and 5b) and extend outward from two ends of the rotating mirror, and one of the bearings is coaxially connected to the corresponding wormgear . a motor , a worm , a wormgear , a mounting rack , and at least two sets of rotating mirrors , wherein the worm and the wormgear are located on the mounting rack , and engage with each other by using a gear for a linkage connection; the rotating mirrors are located in the mounting rack , and each rotating mirror is coaxially connected to one corresponding wormgear , the sets of rotating mirrors rotate synchronously; the motor is configured to drive the worm to rotate, to drive the wormgear and the rotating mirror to rotate coaxially; and the rotating mirror comprises a rotating mirror portion and rotating mirror bases (5a and 5b) that are respectively connected to two ends of the rotating mirror portion , bearings (6a and 6b) that are rotatably connected to the mounting rack are respectively disposed on the two rotating mirror bases (5a and 5b) and extend outward from two ends of the rotating mirror, and one of the bearings is coaxially connected to the corresponding wormgear .