mhurhangee/patent-ind-claim-en huggingface dataset:
A spinal rod link reducer assembly comprising: - a manipulator rod having a first end , a second end , and an elongate body extending along a body axis between the first end and the second end , wherein the first end of the manipulator rod comprises a faceted interface ; - a handle removably attached to the first end , the handle having a faceted receiver adapted to receive the faceted interface of the first end to facilitate rotation of the handle about the manipulator rod in predetermined increments; - a post extending outwardly from the manipulator rod ; and - a rod manipulating joint comprising: - an elongate joint rod extending along a joint rod axis ; - a first coupling clamp disposed along the joint rod, the first coupling clamp releasably connectable to the post ; - a second coupling clamp disposed along the joint rod adjacent to and rotatable about the joint rod relative to the first coupling clamp , the second coupling clamp releasably connectable to a second post; and - a first biasing member adapted to bias the second clamp against the first clamp . - a manipulator rod having a first end , a second end , and an elongate body extending along a body axis between the first end and the second end , wherein the first end of the manipulator rod comprises a faceted interface ; - a handle removably attached to the first end , the handle having a faceted receiver adapted to receive the faceted interface of the first end to facilitate rotation of the handle about the manipulator rod in predetermined increments; - a post extending outwardly from the manipulator rod ; and - a rod manipulating joint comprising: - an elongate joint rod extending along a joint rod axis ; - a first coupling clamp disposed along the joint rod, the first coupling clamp releasably connectable to the post ; - a second coupling clamp disposed along the joint rod adjacent to and rotatable about the joint rod relative to the first coupling clamp , the second coupling clamp releasably connectable to a second post; and - a first biasing member adapted to bias the second clamp against the first clamp . - an elongate joint rod extending along a joint rod axis ; - a first coupling clamp disposed along the joint rod, the first coupling clamp releasably connectable to the post ; - a second coupling clamp disposed along the joint rod adjacent to and rotatable about the joint rod relative to the first coupling clamp , the second coupling clamp releasably connectable to a second post; and - a first biasing member adapted to bias the second clamp against the first clamp .
Breakthrough-proof vehicle barrier in the form of a bollard system which is connected to a device which absorbs the impact energy, characterised in that the bollard system is formed from bollard assemblies which are movably anchored in a flat foundation and which are arranged as a network over the carriageway and that the bollard assemblies are each connected to a bollard via a height adjustment device and are connected to a brake flap which is axially movable at the ends of the bollard assemblies, wherein in each case one end of the bollard assemblies is movably anchored in the flat foundation such that the bollard assemblies form a lever system with the bollards and this lever system moves the respective opposite ends of the bollard assemblies upwards out of the ground as a result of the impact energy of the vehicle due to the movement caused at the respective anchoring point, thereby lifting the impacted vehicle off the carriageway .
A method performed by a User Equipment, UE, for wireless communication, comprising: determining (S201) a frequency set of the serving cell corresponding to the UE, wherein the frequency set of the serving cell is one of a plurality of frequency sets, each of the plurality of frequency sets representing a range of carrier frequencies and being associated with at least one subcarrier spacing; determining (S202) the at least one subcarrier spacing based on a subcarrier spacing set corresponding to the frequency set of the serving cell; and detecting a synchronization signal based on the determined at least one subcarrier spacing. determining (S201) a frequency set of the serving cell corresponding to the UE, wherein the frequency set of the serving cell is one of a plurality of frequency sets, each of the plurality of frequency sets representing a range of carrier frequencies and being associated with at least one subcarrier spacing; determining (S202) the at least one subcarrier spacing based on a subcarrier spacing set corresponding to the frequency set of the serving cell; and detecting a synchronization signal based on the determined at least one subcarrier spacing.
An optical cable structure, comprising: a first jacket , a supporting skeleton provided in the first jacket , and an optical fiber unit ; wherein an accommodating groove is provided within the supporting skeleton , the optical fiber unit is embedded in the accommodating groove , and the supporting skeleton is configured to always have a clamping force applied to the optical fiber unit , wherein the width of the accommodating groove is slightly smaller than the diameter of the optical fiber unit , and wherein along the direction in which the first jacket points toward the supporting skeleton , the width of the accommodating groove is gradually increased to form a groove structure with a smaller opening and a larger internal width dimension, and the optical fiber unit abuts against inner walls of the accommodating groove . wherein an accommodating groove is provided within the supporting skeleton , the optical fiber unit is embedded in the accommodating groove , and the supporting skeleton is configured to always have a clamping force applied to the optical fiber unit , wherein the width of the accommodating groove is slightly smaller than the diameter of the optical fiber unit , and wherein along the direction in which the first jacket points toward the supporting skeleton , the width of the accommodating groove is gradually increased to form a groove structure with a smaller opening and a larger internal width dimension, and the optical fiber unit abuts against inner walls of the accommodating groove .
Mobile access control device for controlled entry and/or exit for a regulated and controlled inflow and outflow of visitors to a defined region, in particular a fair, exhibition or other event, in which the inflow and outflow of visitors to this event is intended to be handled in a controlled manner, the access control device being configured to release or block the access or exit after checking an access authorization by means of one or more barrier elements, and the access control device being able to be brought into a transport state and into an operating state, characterized in that the mobile access control device comprises a preferably at least substantially cuboidal hollow column , the hollow column being formed by two mutually spaced side elements and a rear wall , which is at least substantially fully covered on the rear wall thereof facing away from the access or exit passage and on the two side elements thereof, and the front side of which is closed by a base plate which is at least largely perpendicular when the access control device is in transport state and which is pivotably hinged in the lower region of the hollow column via a swivel joint in such a way that the base plate closes the control device on the underside in an at least largely horizontal orientation in the operating state, and in the process releases an opening facing the access or exit passage, such that a barrier element which is at least largely completely received in the hollow column in the transport state can be pivoted out or pulled out through said opening in such a way that the access or exit passage can be controlled by means of said barrier element.
A process for the preparation of a cyanoacetate, steps of which comprise: (a) contacting aspartic acid with an alcohol, in the presence of an acetyl halide, under appropriate conditions and for a time sufficient to yield a beta-ester of the aspartic acid; (b) optionally, separating therefrom the so formed beta-ester of the aspartic acid; (c) contacting the beta-ester of the aspartic acid with a halogenating agent under appropriate conditions and for a time sufficient to yield a cyanoacetate; and (d) optionally, separating therefrom the so formed cyanoacetate. (a) contacting aspartic acid with an alcohol, in the presence of an acetyl halide, under appropriate conditions and for a time sufficient to yield a beta-ester of the aspartic acid; (b) optionally, separating therefrom the so formed beta-ester of the aspartic acid; (c) contacting the beta-ester of the aspartic acid with a halogenating agent under appropriate conditions and for a time sufficient to yield a cyanoacetate; and (d) optionally, separating therefrom the so formed cyanoacetate.
A process for the preparation of micronized crystalline particles of a glycopyrronium pharmaceutically acceptable salt, the process comprising the steps of: (a) feeding the micronization chamber of a wet milling apparatus containing grinding media, with a water immiscible anti-solvent selected from the group consisting of perfluorodecane, decafluoropentane and 2H,3H-decafluoropentane; (b) suspending the particles of the glycopyrronium salt in said anti-solvent; (c) micronizing said suspended particles at a pressure comprised between 50 and 200 kPa and at a temperature comprised between 0 and 40°C; (d) drying the obtained micronized particles to remove the anti-solvent; whereby at least 90% of said drug particles have a volume diameter of less than 10 micron as determined by Malvern apparatus. (a) feeding the micronization chamber of a wet milling apparatus containing grinding media, with a water immiscible anti-solvent selected from the group consisting of perfluorodecane, decafluoropentane and 2H,3H-decafluoropentane; (b) suspending the particles of the glycopyrronium salt in said anti-solvent; (c) micronizing said suspended particles at a pressure comprised between 50 and 200 kPa and at a temperature comprised between 0 and 40°C; (d) drying the obtained micronized particles to remove the anti-solvent; whereby at least 90% of said drug particles have a volume diameter of less than 10 micron as determined by Malvern apparatus.
A method for assessing performance of an instrument with both liquid chromatography (LC) and mass spectrometry (MS) functionalities comprising: (a) introducing a neat peptide mixture without background causing agents to the instrument, wherein said peptide mixture comprises three or more distinct-mass versions of each of two or more distinct-sequence peptides, and wherein two or more of the distinct-mass versions of each of the two or more distinct peptide sequences comprises one or more amino acids with above natural-abundance levels of one or more heavy isotopes; (b) separating or analysing the peptide mixture by LC; (c) analysing the peptide mixture by MS; (d) assessing the performance of the LC and MS functionalities of the instrument based on results of steps (b) and (c); and (e) comparing assessments performed at different time points to monitor changes in instrument performance. (a) introducing a neat peptide mixture without background causing agents to the instrument, wherein said peptide mixture comprises three or more distinct-mass versions of each of two or more distinct-sequence peptides, and wherein two or more of the distinct-mass versions of each of the two or more distinct peptide sequences comprises one or more amino acids with above natural-abundance levels of one or more heavy isotopes; (b) separating or analysing the peptide mixture by LC; (c) analysing the peptide mixture by MS; (d) assessing the performance of the LC and MS functionalities of the instrument based on results of steps (b) and (c); and (e) comparing assessments performed at different time points to monitor changes in instrument performance.
A method for installing a heavy and bulky switching module , in particular a static transfer switch (STS), in an electrical cabinet , wherein said switching module is installed in said electrical cabinet by means of an installation kit to make said switching module easily removable and interchangeable, regardless of its size and weight, and avoid the need for a lifting device, method in which said electrical cabinet is equipped with said installation kit comprising two support rails , extendable between an extended position outside of said electrical cabinet and a retracted position inside said electrical cabinet , said support rails being arranged to form two parallel rolling paths, wherein said switching module is equipped with rollers arranged in two parallel rows, designed to circulate on said rolling paths so as to be able to move said switching module from the outside to the inside of said electrical cabinet , and vice versa, by pushing and pulling with minimal effort, and wherein a raised transport pallet , forming part of said installation kit, is used to handle said switching module outside said electrical cabinet by means of an industrial truck , so that the wheels of said switching module , when supported by said transport pallet , are positioned substantially at the same level as the roller paths defined by said support rails in order to allow the transfer of said switching module by rolling it from the transport pallet to the electrical cabinet and vice versa.
Power supply device for metallurgic equipment to be operated with electric energy with non-linear load comprising a maximum power consumption greater than or equal to 180 MVA, such as an electric arc furnace with a power consumption greater than or equal to 180 MVA, comprising at least two structurally equivalent three-phase furnace transformers with an output power greater than or equal to 90 MVA, each of the furnace transformers comprising an input-side three-phase medium voltage connector (1U-100, 1V-100, 1W-100; 1U-200, 1V-200, 1W-200) and a delta interconnection (D) on the input-side and an output-side three-phase low voltage connector (2U1-100, 2U2-100, 2V1-100, 2V2-100, 2W1-100, 2W2-100; 2U1-200, 2U2-200, 2V1-200, 2V2-200, 2W1-200, 2W2-200) and an external interconnection (iii) on the output side, at least one medium voltage furnace bar (140; 140a, 140b) connected to the input-side medium voltage connectors (1U-100, 1V-100, 1W-100; 1U-200, 1V-200, 1W-200) of the furnace transformers , and a low voltage-side parallel circuit of the output-side low voltage connectors (2U1-100, 2U2-100, 2V1-100, 2V2-100, 2W1-100, 2W2-100; 2U1-200, 2U2-200, 2V1-200, 2V2-200, 2W1-200, 2W2-200) of the furnace transformers with symmetrized external delta interconnections by means of water-cooled high current conductors, which low voltage-side parallel circuit is connectable to electrodes of the metallurgic equipment . at least two structurally equivalent three-phase furnace transformers with an output power greater than or equal to 90 MVA, each of the furnace transformers comprising an input-side three-phase medium voltage connector (1U-100, 1V-100, 1W-100; 1U-200, 1V-200, 1W-200) and a delta interconnection (D) on the input-side and an output-side three-phase low voltage connector (2U1-100, 2U2-100, 2V1-100, 2V2-100, 2W1-100, 2W2-100; 2U1-200, 2U2-200, 2V1-200, 2V2-200, 2W1-200, 2W2-200) and an external interconnection (iii) on the output side, at least one medium voltage furnace bar (140; 140a, 140b) connected to the input-side medium voltage connectors (1U-100, 1V-100, 1W-100; 1U-200, 1V-200, 1W-200) of the furnace transformers , and a low voltage-side parallel circuit of the output-side low voltage connectors (2U1-100, 2U2-100, 2V1-100, 2V2-100, 2W1-100, 2W2-100; 2U1-200, 2U2-200, 2V1-200, 2V2-200, 2W1-200, 2W2-200) of the furnace transformers with symmetrized external delta interconnections by means of water-cooled high current conductors, which low voltage-side parallel circuit is connectable to electrodes of the metallurgic equipment .
A multilayer film, comprising two outer layers and a core layer between the two outer layers, wherein each of the two outer layers comprises 100 wt% of metallocene polyethylene (mPE), based on total weight of polymer in the outer layer, wherein the mPE comprises a first mPE having a density of 0.910 to 0.945 g/cm 3 , a melt index (MI), I 2.16 , of 0.1 to 15 g/10 min (measured according to ASTM D-1238, 2.16 kg, 190°C), a molecular weight distribution (MWD) of 1.5 to 5.5 (measured by GPC), and a melt index ratio (MIR), I 21.6 /I 2.16 , of 10 to 100 (measured according to ASTM D-1238, 190°C, 21.6 kg/2.16 kg); wherein the core layer comprises at least 30 wt% of at least one of LLDPE, LDPE and HDPE, based on total weight of polymer in the core layer; wherein the multilayer film has at least one of the following properties: (i) a haze of at least 40% lower, (ii) a clarity of at least 90% higher, (iii) a gloss of at least 40% higher, (iv) a dart impact of up to 40% higher, (v) a puncture force of up to 12% higher, and (vi) a tear strength of up to 5% lower, compared to that of a multilayer film having 50 wt% of mPE present in each of outer layers but otherwise identical in terms of density, thickness and total mPE amount of the film; and wherein at least one of the two outer layers has a density greater than that of the core layer.
A method for communicating with a remote device , the method comprising: using a computer processor and a network interface: discovering a set of supported application-layer communications protocols of the remote device ; selecting one of the set of supported application-layer communications protocols as a selected application-layer communications protocol for a message received from a source application , based upon a characteristic of a computer network used to communicate with the remote device and a communication characteristic of the source application of the message, wherein this selecting comprises: detecting the characteristic of the computer network ; determining the communication characteristic of the source application ; and selecting rows of a database matching the characteristic of the computer network and the communication characteristic of the source application ; and selecting the application-layer communications protocol corresponding to a selected row that has a lowest transmission time; constructing the message according to the selected application-layer communications protocol; transmitting the message to the remote device over the computer network using the selected application-layer communications protocol and the network interface; and updating the database based upon a communication parameter of the transmitted message. discovering a set of supported application-layer communications protocols of the remote device ; selecting one of the set of supported application-layer communications protocols as a selected application-layer communications protocol for a message received from a source application , based upon a characteristic of a computer network used to communicate with the remote device and a communication characteristic of the source application of the message, wherein this selecting comprises: detecting the characteristic of the computer network ; determining the communication characteristic of the source application ; and selecting rows of a database matching the characteristic of the computer network and the communication characteristic of the source application ; and selecting the application-layer communications protocol corresponding to a selected row that has a lowest transmission time; detecting the characteristic of the computer network ; determining the communication characteristic of the source application ; and selecting rows of a database matching the characteristic of the computer network and the communication characteristic of the source application ; and selecting the application-layer communications protocol corresponding to a selected row that has a lowest transmission time; constructing the message according to the selected application-layer communications protocol; transmitting the message to the remote device over the computer network using the selected application-layer communications protocol and the network interface; and updating the database based upon a communication parameter of the transmitted message.
A vacuum adiabatic body comprising: a first plate member defining at least one portion of a wall for a first space; a second plate member defining at least one portion of a wall for a second space having a different temperature from the first space, wherein the second plate member includes a front part and a side part bent with respect to the front part ; a vacuum space part defined as a gap part between the first and second plate members ; a conductive resistance sheet for preventing heat conduction between the first and second plate members ; and a side frame provided at an outside of the conductive resistance sheet , wherein the first plate member , the second plate member , the conductive resistance sheet , and the side frame separate the vacuum space part from an external atmospheric space; characterized in that : one end of the side frame is fastened to the conductive resistance sheet by a sealing part , and the other end of the side frame is fastened to the second plate member by an edge part ; and wherein the edge part is provided at a corner portion of the front part adjacent to the side part in addition to the side part , or to an edge portion of the second plate member , and wherein the vacuum space extends up to the edge part by which the side frame is fastened to the second plate member . a first plate member defining at least one portion of a wall for a first space; a second plate member defining at least one portion of a wall for a second space having a different temperature from the first space, wherein the second plate member includes a front part and a side part bent with respect to the front part ; a vacuum space part defined as a gap part between the first and second plate members ; a conductive resistance sheet for preventing heat conduction between the first and second plate members ; and a side frame provided at an outside of the conductive resistance sheet , wherein the first plate member , the second plate member , the conductive resistance sheet , and the side frame separate the vacuum space part from an external atmospheric space; characterized in that : one end of the side frame is fastened to the conductive resistance sheet by a sealing part , and the other end of the side frame is fastened to the second plate member by an edge part ; and wherein the edge part is provided at a corner portion of the front part adjacent to the side part in addition to the side part , or to an edge portion of the second plate member , and wherein the vacuum space extends up to the edge part by which the side frame is fastened to the second plate member . one end of the side frame is fastened to the conductive resistance sheet by a sealing part , and the other end of the side frame is fastened to the second plate member by an edge part ; and wherein the edge part is provided at a corner portion of the front part adjacent to the side part in addition to the side part , or to an edge portion of the second plate member , and wherein the vacuum space extends up to the edge part by which the side frame is fastened to the second plate member .