mhurhangee/patent-ind-claim-en huggingface dataset:
An instrument for setting a drill pin depth, comprising: an elongate shaft having a proximal end , a distal end , and a channel formed therein, the channel extending from the proximal end and toward the distal end and being configured to receive a drill pin of a ligament drill guide; a movable depth indicator having a bore formed therethrough, the bore being configured to receive the elongate shaft, and the depth indicator being configured to selectively engage the elongate shaft at a plurality of locations along its length to thereby fix a location of the depth indicator with respect to the elongate shaft, wherein the fixed location at which the depth indicator is set establishes a terminal distal travel location for a drill pin disposed in the channel such that abutment of said drill pin against a proximal face of the depth indicator prevents the drill pin from extending distally past the terminal distal travel location. an elongate shaft having a proximal end , a distal end , and a channel formed therein, the channel extending from the proximal end and toward the distal end and being configured to receive a drill pin of a ligament drill guide; a movable depth indicator having a bore formed therethrough, the bore being configured to receive the elongate shaft, and the depth indicator being configured to selectively engage the elongate shaft at a plurality of locations along its length to thereby fix a location of the depth indicator with respect to the elongate shaft, wherein the fixed location at which the depth indicator is set establishes a terminal distal travel location for a drill pin disposed in the channel such that abutment of said drill pin against a proximal face of the depth indicator prevents the drill pin from extending distally past the terminal distal travel location.
An agent for use in the treatment or prevention of a disease or condition or for use to cause weight loss of a subject comprising a first agent for use to treat or prevent a first disease or first condition, wherein said first disease or first condition is obesity, and wherein said first agent is selected from: a) a halomethyl choline, b) a halomethyl betaine, c) a halomethyl betaine salt, d) a halomethyl betaine amide, and e) a halomethyl dimethyl amine alcohol, f) a morpholino compound, having the chemical structures and groups as shown below: Halomethyl cholines : ( Fluorocholine, Chlorocholine, Bromocholine, Iodocholine ) x = F, Cl, Br, I Y represents counter ions: Y = I, Br, Cl Halomethyl betaines : ( Fluorodimethylglycine, Chlorodimethylglycine, Bromomethylglycine, Iododimethylglycine ) x= F, Cl, Br, I Halomethyl betaine salts: X= F, Cl, Br, I Y represents counter ions: Y = I, Br, Cl Halomethyl betaine amides : X = F, Cl, Br, I Y represents counter ions: Y = I, Br, Cl Halomethyl betaine amides: X= F, Cl, Br, I Y = I, Br, Cl R = methyl, ethyl, propyl, amino acids, peptides Halomethyl dimethyl amino alcohols: X = F, C I, Br, I Y = I, Br, Cl R = methyl, ethyl, propyl (e.g. N- Iodomethyl N,N-dimethylamine-2-hydroxy-propanol, when X = I, R = methyl) Morpholines : X= H, F, Cl, Br, I Y = Cl, Br, I (e.g. N-methyl-N-(2-hydroxyethyl) morpholine , wh e n X = H) Morpholines : X= H, F, Cl, Br, I Y = Cl, Br, I a) a halomethyl choline, b) a halomethyl betaine, c) a halomethyl betaine salt, d) a halomethyl betaine amide, and e) a halomethyl dimethyl amine alcohol, f) a morpholino compound,
An indoor unit, comprising: a housing having an air inlet , a first air outlet and a second air outlet , wherein the second air outlet is arranged below the first air outlet; an air output door assembly arranged at the second air outlet and connected to the housing, wherein when the indoor unit is in operation, an air output channel is defined between the air output door assembly and the housing, and an air output end of the air output channel is located in front of the second air outlet and has a ring shape, in which a horizontal plane passing through a center of the second air outlet serves as a reference plane; and a heat exchanger assembly and an air duct assembly both arranged in the housing, characterised in comprising: an upper air output channel configured as a part of the air output channel above the reference plane, and a lower air output channel configured as a part of the air output channel below the reference plane, and at least a part of the upper air output channel being configured as a first air regulation channel area ; a first opening-closing mechanism configured to open or close the first air regulation channel area and movably mounted to the air output door assembly. a housing having an air inlet , a first air outlet and a second air outlet , wherein the second air outlet is arranged below the first air outlet; an air output door assembly arranged at the second air outlet and connected to the housing, wherein when the indoor unit is in operation, an air output channel is defined between the air output door assembly and the housing, and an air output end of the air output channel is located in front of the second air outlet and has a ring shape, in which a horizontal plane passing through a center of the second air outlet serves as a reference plane; and a heat exchanger assembly and an air duct assembly both arranged in the housing, characterised in comprising: an upper air output channel configured as a part of the air output channel above the reference plane, and a lower air output channel configured as a part of the air output channel below the reference plane, and at least a part of the upper air output channel being configured as a first air regulation channel area ; a first opening-closing mechanism configured to open or close the first air regulation channel area and movably mounted to the air output door assembly. an upper air output channel configured as a part of the air output channel above the reference plane, and a lower air output channel configured as a part of the air output channel below the reference plane, and at least a part of the upper air output channel being configured as a first air regulation channel area ; a first opening-closing mechanism configured to open or close the first air regulation channel area and movably mounted to the air output door assembly.
An adsorbent comprising a zeolite-based phase and a non-zeolite-based phase, wherein said adsorbent presents: - an outer surface area of less than or equal to 30 m 2 .g -1 , preferably of less than or equal to 20 m 2 .g -1 , calculated via the t-plot method from the nitrogen adsorption isotherm at a temperature of 77 K, after degassing under vacuum (P<6.7.10 -4 Pa), at a temperature of between 300°C and 450°C for a time ranging from 9 hours to 16 hours, - a zeolite-based phase comprising at least one zeolite of FAU structure of X type, - and a pore diameter distribution, determined by mercury intrusion according to standard ASTM D 4284-83 and expressed by the volume distribution dV/dlog D Hg , wherein D Hg is the apparent pore diameter and V is the pore volume, the mode of which is between 100 nm and 250 nm, limits inclusive. - an outer surface area of less than or equal to 30 m 2 .g -1 , preferably of less than or equal to 20 m 2 .g -1 , calculated via the t-plot method from the nitrogen adsorption isotherm at a temperature of 77 K, after degassing under vacuum (P<6.7.10 -4 Pa), at a temperature of between 300°C and 450°C for a time ranging from 9 hours to 16 hours, - a zeolite-based phase comprising at least one zeolite of FAU structure of X type, - and a pore diameter distribution, determined by mercury intrusion according to standard ASTM D 4284-83 and expressed by the volume distribution dV/dlog D Hg , wherein D Hg is the apparent pore diameter and V is the pore volume, the mode of which is between 100 nm and 250 nm, limits inclusive.
A chassis assembly for a land vehicle , in particular for an off-road truck, comprising: a chassis frame , an intermediate frame which is connected to the chassis frame and which comprises at least one profiled support which runs in a longitudinal direction (L) of the chassis assembly , and a support installation for supporting a superstructure of the land vehicle , wherein the support installation is mounted so as to be movable on the intermediate frame and comprises a support arm having a support arm through-hole , said support arm running in a transverse direction (Q) of the chassis assembly , wherein the at least one profiled support is routed through the support arm through-hole in such a manner that a cross section (A2) of the at least one profiled support is at least in portions disposed within the support arm through-hole . a chassis frame , an intermediate frame which is connected to the chassis frame and which comprises at least one profiled support which runs in a longitudinal direction (L) of the chassis assembly , and a support installation for supporting a superstructure of the land vehicle , wherein the support installation is mounted so as to be movable on the intermediate frame and comprises a support arm having a support arm through-hole , said support arm running in a transverse direction (Q) of the chassis assembly , wherein the at least one profiled support is routed through the support arm through-hole in such a manner that a cross section (A2) of the at least one profiled support is at least in portions disposed within the support arm through-hole .
A microparticle measurement device comprising: a plurality of first tank units to which a liquid (S1) is supplied via respective supply channels from a second tank unit outside of the microparticle measurement device , and which are respectively connected in parallel; and a valve unit that is connected to the plurality of first tank units , and which switches to a state in which it is possible to deliver the liquid (S1) to a flow channel through which microparticles flow; characterized by a supply pump unit that supplies the liquid (S1) from the second tank unit to the plurality of first tank units ; and a control unit configured to drive the valve unit and the supply pump unit in conjunction based on a residual quantity of the liquid (S1) in the plurality of first tank units . a plurality of first tank units to which a liquid (S1) is supplied via respective supply channels from a second tank unit outside of the microparticle measurement device , and which are respectively connected in parallel; and a valve unit that is connected to the plurality of first tank units , and which switches to a state in which it is possible to deliver the liquid (S1) to a flow channel through which microparticles flow; characterized by a supply pump unit that supplies the liquid (S1) from the second tank unit to the plurality of first tank units ; and a control unit configured to drive the valve unit and the supply pump unit in conjunction based on a residual quantity of the liquid (S1) in the plurality of first tank units .
Method for operating a power distributor having a first controller and having a number of connection modules in a row inside the module each with one base resistor which forms a series-connected resistor chain with the base resistors of the connection modules in a row, - wherein the connection modules are each equipped with an actuatable circuit breaker having a second controller inside the breaker and having a switching element , which circuit breaker transmits a controller signal (C), which corresponds to the voltage (U i ) dropped across the respective base resistor , to the first controller , - wherein a total resistance value of the resistor chain is determined, and, on the basis of the total resistance value, a number value (A) corresponding to the number of connected connection modules is determined by the first controller , - wherein, in the event of a galvanic interruption of the resistor chain , a search process for determining the position of the interruption is initiated, - wherein, at the beginning of the search process, all connected second controllers are set to an ON state, in which the respective switching element is closed, and - wherein, during the search process, the number value (A) for the number of connected connection modules is determined, - wherein device addresses (G i ) are distributed to the connected second controllers , and - wherein the second controller with the first device address (G 1 ) and the associated switching element are switched off. - wherein the connection modules are each equipped with an actuatable circuit breaker having a second controller inside the breaker and having a switching element , which circuit breaker transmits a controller signal (C), which corresponds to the voltage (U i ) dropped across the respective base resistor , to the first controller , - wherein a total resistance value of the resistor chain is determined, and, on the basis of the total resistance value, a number value (A) corresponding to the number of connected connection modules is determined by the first controller , - wherein, in the event of a galvanic interruption of the resistor chain , a search process for determining the position of the interruption is initiated, - wherein, at the beginning of the search process, all connected second controllers are set to an ON state, in which the respective switching element is closed, and - wherein, during the search process, the number value (A) for the number of connected connection modules is determined, - wherein device addresses (G i ) are distributed to the connected second controllers , and - wherein the second controller with the first device address (G 1 ) and the associated switching element are switched off.
An operating method of a base station for transmitting and receiving pedestrian-to-vehicle, P2V, data, the operating method comprising: identifying (1i-35; lj-35; 1k-35) whether a vehicle user equipment, UE, enters a preset dangerous area; when it is identified that the vehicle UE enters the dangerous area, transmitting (1i-40; lj-40; 1k-40) a message related to the dangerous area to a pedestrian UE, P-UE; receiving (1i-60; lj-60; 1k-60), from the P-UE, a request for allocation of sidelink resources for transmitting and receiving P2V data to and from the vehicle UE; and allocating (li-65; lj-65; 1k-65) the sidelink resources to the P-UE, wherein the message related to the dangerous area includes a P2V indication indicating that the P-UE is located in the dangerous area or indicating the P-UE to transmit the P2V data. identifying (1i-35; lj-35; 1k-35) whether a vehicle user equipment, UE, enters a preset dangerous area; when it is identified that the vehicle UE enters the dangerous area, transmitting (1i-40; lj-40; 1k-40) a message related to the dangerous area to a pedestrian UE, P-UE; receiving (1i-60; lj-60; 1k-60), from the P-UE, a request for allocation of sidelink resources for transmitting and receiving P2V data to and from the vehicle UE; and allocating (li-65; lj-65; 1k-65) the sidelink resources to the P-UE, wherein the message related to the dangerous area includes a P2V indication indicating that the P-UE is located in the dangerous area or indicating the P-UE to transmit the P2V data.
A hot rolled steel sheet characterized by consisting of, by mass%, C: 0.10% or more and 0.50% or less, Si: 0.10% or more and 3.00% or less, Mn: 0.5% or more and 3.0% or less, P: 0.100% or less, S: 0.010% or less, Al: 1.00% or less, and N: 0.010% or less, optionally one or more elements selected from the group consisting of Ti: 0.02% or more and 0.20% or less, Nb: 0.00% or more and 0.10% or less, Ca: 0.0000% or more and 0.0060% or less, Mo: 0.00% or more and 0.50% or less, and Cr: 0.0% or more and 1.0% or less, and a balance of Fe and impurities, wherein a metal structure at a position of 1/4 thickness from a surface in an L-cross-section of the steel sheet comprises prior austenite grains of an average value of aspect ratios of 2.0 or less, an average grain size of 0.1 μm or more and 3.0 μm or less, and a coefficient of variation of a standard deviation of grain size distribution/average grain size of 0.40 or more, and a texture with an X-ray diffraction intensity ratio of <110> orientation with respect to random samples of 2.0 or more, measured with the methods as detailed in the description and the hot rolled steel sheet has a tensile strength of 1180 MPa or more. C: 0.10% or more and 0.50% or less, Si: 0.10% or more and 3.00% or less, Mn: 0.5% or more and 3.0% or less, P: 0.100% or less, S: 0.010% or less, Al: 1.00% or less, and N: 0.010% or less, optionally one or more elements selected from the group consisting of Ti: 0.02% or more and 0.20% or less, Nb: 0.00% or more and 0.10% or less, Ca: 0.0000% or more and 0.0060% or less, Mo: 0.00% or more and 0.50% or less, and Cr: 0.0% or more and 1.0% or less, and Ti: 0.02% or more and 0.20% or less, Nb: 0.00% or more and 0.10% or less, Ca: 0.0000% or more and 0.0060% or less, Mo: 0.00% or more and 0.50% or less, and Cr: 0.0% or more and 1.0% or less, and a balance of Fe and impurities, wherein a metal structure at a position of 1/4 thickness from a surface in an L-cross-section of the steel sheet comprises prior austenite grains of an average value of aspect ratios of 2.0 or less, an average grain size of 0.1 μm or more and 3.0 μm or less, and a coefficient of variation of a standard deviation of grain size distribution/average grain size of 0.40 or more, and a texture with an X-ray diffraction intensity ratio of <110> orientation with respect to random samples of 2.0 or more, measured with the methods as detailed in the description and the hot rolled steel sheet has a tensile strength of 1180 MPa or more.
Method for producing a setting and hardening accelerator for hydraulic binders, comprising a step: (i) for reacting a calcium compound CV with silica sol SL , characterized in that the calcium compound CV is selected from the group consisting of calcium chloride, calcium nitrate, calcium formate, calcium acetate, calcium bicarbonate, calcium bromide, calcium citrate, calcium chlorate, calcium hydroxide, calcium oxide, calcium hypochloride, calcium iodates, calcium iodide, calcium lactate, calcium nitrite, calcium phosphate, calcium propionate, calcium sulfate, calcium sulfate hemihydrate, calcium sulfate dihydrate, calcium sulfide, calcium tartrate, calcium gluconate, calcium sulfamate, calcium maleate, calcium fumarate, calcium adipate and calcium aluminate, and in that in the course of the reaction of step (i), molar ratios present are as follows: Ca 2+ :SiO 2 = 0.1 - 2.5, and in that the silica sol SL has a pH of 3 - 7, and in that the silica sol SL is a silica sol having an average particle diameter of 1 - 150 nm, with the setting and hardening accelerator being present as a powder, a suspension or an aqueous solution. (i) for reacting a calcium compound CV with silica sol SL , characterized in that the calcium compound CV is selected from the group consisting of calcium chloride, calcium nitrate, calcium formate, calcium acetate, calcium bicarbonate, calcium bromide, calcium citrate, calcium chlorate, calcium hydroxide, calcium oxide, calcium hypochloride, calcium iodates, calcium iodide, calcium lactate, calcium nitrite, calcium phosphate, calcium propionate, calcium sulfate, calcium sulfate hemihydrate, calcium sulfate dihydrate, calcium sulfide, calcium tartrate, calcium gluconate, calcium sulfamate, calcium maleate, calcium fumarate, calcium adipate and calcium aluminate, and in that in the course of the reaction of step (i), molar ratios present are as follows: Ca 2+ :SiO 2 = 0.1 - 2.5, and in that the silica sol SL has a pH of 3 - 7, and in that the silica sol SL is a silica sol having an average particle diameter of 1 - 150 nm, with the setting and hardening accelerator being present as a powder, a suspension or an aqueous solution.
A method for spatially shaping a laser beam by means of an optical valve including a plurality of pixels controllable in transmission by means of a control vector, each element of the control vector controlling the transmission of a corresponding pixel and being initialised at a predetermined value, the spatial shape of the beam to be obtained being defined by a setpoint profile in a plane transverse to the direction of propagation of the beam, said method including a plurality of successive iterations, the control vector being updated at each iteration, each iteration comprising: - a step of acquiring the image of the beam in said transverse plane at the output of the optical valve, to obtain a profile of the observed beam in this plane; - a step of calculating the moments of the observed profile with respect to a product base, the product base consisting of products of functions of an adapted base with a square summable over at least one area of the plane containing the support of the setpoint profile, the spectra of said functions according to two axes of the plane being bordered by predetermined maximum values of spatial frequency; - a step of calculating the ratios between the components of the setpoint profile and corresponding components of the observed profile in the adapted base, to thereby deduce the ratio between the setpoint profile and the observed profile in the transverse plane; - a step of determining the control vector at the current iteration according to the ratio calculated at the previous step and the control vector calculated at the previous iteration; - a step of controlling the optical valve by means of the elements of the control vector determined at the previous step; the iterations being carried on until a predetermined stopping criterion is met. - a step of acquiring the image of the beam in said transverse plane at the output of the optical valve, to obtain a profile of the observed beam in this plane; - a step of calculating the moments of the observed profile with respect to a product base, the product base consisting of products of functions of an adapted base with a square summable over at least one area of the plane containing the support of the setpoint profile, the spectra of said functions according to two axes of the plane being bordered by predetermined maximum values of spatial frequency; - a step of calculating the ratios between the components of the setpoint profile and corresponding components of the observed profile in the adapted base, to thereby deduce the ratio between the setpoint profile and the observed profile in the transverse plane; - a step of determining the control vector at the current iteration according to the ratio calculated at the previous step and the control vector calculated at the previous iteration; - a step of controlling the optical valve by means of the elements of the control vector determined at the previous step;