mhurhangee/ep-ind-claims huggingface dataset:
An enzymatic sample purifier apparatus comprising: a waste chamber; a reaction chamber containing a polypeptide synthesis enzyme, an enzyme cofactor and a cosolvent, the reaction chamber having a port to receive a sample comprising a protein degradation product; a porous matrix within the reaction chamber, wherein the porous matrix comprises first pores having a first size and second pores having a second size larger than the first size, the first size being smaller than a molecular size of to be formed polypeptides, the second pores being larger than the molecular size of the to be formed polypeptides, in contact with the first pores and forming a polypeptide passage extending from within the reaction chamber to the waste chamber. a waste chamber; a reaction chamber containing a polypeptide synthesis enzyme, an enzyme cofactor and a cosolvent, the reaction chamber having a port to receive a sample comprising a protein degradation product; a porous matrix within the reaction chamber, wherein the porous matrix comprises first pores having a first size and second pores having a second size larger than the first size, the first size being smaller than a molecular size of to be formed polypeptides, the second pores being larger than the molecular size of the to be formed polypeptides, in contact with the first pores and forming a polypeptide passage extending from within the reaction chamber to the waste chamber.
A process for preparing a particulate spherical carrier for olefin polymerization catalyst containing a magnesium compound, comprising: a) mixing a magnesium halide of a general formula of MgX 2-n R n, wherein X is independently chloride or bromide, R is a C 1-14 -alkly, a C 6-14 -aryl, a C 1-14 -alkoxy, or a C 6-14 -aryloxy, and n is 0 or 1, an alcohol compound and an optional inert liquid medium in a vessel, heating the resultant mixture to a temperature of from 30 to 160 °C and allowing it to react, to form a magnesium halide-alcohol adduct solution; and b) reacting the magnesium halide-alcohol adduct solution with an epoxy compound of the general formula: wherein R 2 and R 3 are independently hydrogen, a C 1-5 linear or branched alkyl, or a C 1-5 linear or branched haloalkyl, at a temperature of from 30 to 160 °C, to form said particulate spheric carrier, wherein the amount of the alcohol compound used ranges from 4 to 40 moles, and the amount of the epoxy compound used ranges from 1 to 10 moles, relative to one mole of the magnesium halide. a) mixing a magnesium halide of a general formula of MgX 2-n R n, wherein X is independently chloride or bromide, R is a C 1-14 -alkly, a C 6-14 -aryl, a C 1-14 -alkoxy, or a C 6-14 -aryloxy, and n is 0 or 1, an alcohol compound and an optional inert liquid medium in a vessel, heating the resultant mixture to a temperature of from 30 to 160 °C and allowing it to react, to form a magnesium halide-alcohol adduct solution; and b) reacting the magnesium halide-alcohol adduct solution with an epoxy compound of the general formula: wherein R 2 and R 3 are independently hydrogen, a C 1-5 linear or branched alkyl, or a C 1-5 linear or branched haloalkyl, at a temperature of from 30 to 160 °C, to form said particulate spheric carrier, wherein the amount of the alcohol compound used ranges from 4 to 40 moles, and the amount of the epoxy compound used ranges from 1 to 10 moles, relative to one mole of the magnesium halide.
Lighting arrangement with an exchangeable lighting cap, comprising - said lighting cap with at least one light emitting element arranged on a front face of said lighting cap, wherein a direction of illumination is perpendicular to said front face, and - with two positioning slots (23a, b) arranged at an edge of said front face, - each of said positioning slots (23a, b) being aligned perpendicular to said direction of illumination, - a holder with an opening for receiving at least said front face of said lighting cap, - wherein two positioning elements (33a, b) are arranged at a rim of said opening, - said positioning elements (33a, b) being insertable into said positioning slots (23a, b) of said lighting cap by elastic deformation of the holder or of the lighting cap to fix the position of said lighting cap in said holder by a tight fitting, and - a lock lever arranged at said lighting cap and said holder, - said lock lever being turnable between an open position for inserting said lighting cap into said opening of said holder and a locked position for locking said lighting cap in position on said holder. - said lighting cap with at least one light emitting element arranged on a front face of said lighting cap, wherein a direction of illumination is perpendicular to said front face, and - with two positioning slots (23a, b) arranged at an edge of said front face, - each of said positioning slots (23a, b) being aligned perpendicular to said direction of illumination, - a holder with an opening for receiving at least said front face of said lighting cap, - wherein two positioning elements (33a, b) are arranged at a rim of said opening, - said positioning elements (33a, b) being insertable into said positioning slots (23a, b) of said lighting cap by elastic deformation of the holder or of the lighting cap to fix the position of said lighting cap in said holder by a tight fitting, and - a lock lever arranged at said lighting cap and said holder, - said lock lever being turnable between an open position for inserting said lighting cap into said opening of said holder and a locked position for locking said lighting cap in position on said holder.
A power transmission unit (41a, 71a) comprising: a motor; and a transmission case to enclose an input shaft, an output shaft, and a gear mechanism that transmits driving power between the input shaft and the output shaft, wherein a motor case is attached to the transmission case on a side opposite the gear mechanism of the transmission case, the motor case has a cylindrical shape whose cross section is constant throughout a direction orthogonal to an axial direction of the motor case, and the motor is placed inside the motor case, wherein a cover is fixed to the motor case to block an opening at an outer end in the axial direction of the motor case, and wherein the motor case is directly coupled to the transmission case, the input shaft is a motor shaft of the motor, characterised in that a support to secure a bearing that supports a rotor shaft of the motor (28, 70) is provided on a side of the transmission case. a motor; and a transmission case to enclose an input shaft, an output shaft, and a gear mechanism that transmits driving power between the input shaft and the output shaft, wherein a motor case is attached to the transmission case on a side opposite the gear mechanism of the transmission case, the motor case has a cylindrical shape whose cross section is constant throughout a direction orthogonal to an axial direction of the motor case, and the motor is placed inside the motor case, wherein a cover is fixed to the motor case to block an opening at an outer end in the axial direction of the motor case, and wherein the motor case is directly coupled to the transmission case, the input shaft is a motor shaft of the motor, characterised in that a support to secure a bearing that supports a rotor shaft of the motor (28, 70) is provided on a side of the transmission case.
Method for generating, from an HOA signal representation c ( t) of a sound field having an order of N and a number O = ( N + 1) 2 of coefficient sequences, a mezzanine HOA signal representation w MEZZ ( t) consisting of an arbitrary number I < O of virtual loudspeaker signals w MEZZ,1 ( t), w MEZZ,2 ( t),..., w MEZZ,I ( t), said method including: - determining a desired number I of virtual loudspeaker signals in said mezzanine HOA signal representation with I < O; - taking O directions Ω j N, j = 1,..., O, of virtual loudspeaker signals, which are targeted to be uniformly distributed on the unit sphere, and sub-dividing them into said desired number I of groups, i = 1,..., I of neighbouring directions; - linearly combining mode vectors S n:= S 0 0 Ω n N S 1 − 1 Ω n N S 1 0 Ω n N S 1 1 Ω n N ⋯ S N N − 1 Ω n N S N N Ω n N T ∈ R O for said directions Ω j N within each group, resulting in vectors where α n ≥ 0 denotes a weight of S n for said combining; - constructing from said vectors V i a matrix V: = K ⋅ V 1 V 2... V I ∈ R O × I with an arbitrary positive real-valued scaling factor K > O; - calculating from said matrix V a matrix V + which is the Moore-Penrose pseudoinverse of matrix V; - computing for a current section of c ( t) said mezzanine HOA representation w MEZZ ( t) by w MEZZ ( t) = V + · c ( t). - determining a desired number I of virtual loudspeaker signals in said mezzanine HOA signal representation with I < O; - taking O directions Ω j N, j = 1,..., O, of virtual loudspeaker signals, which are targeted to be uniformly distributed on the unit sphere, and sub-dividing them into said desired number I of groups, i = 1,..., I of neighbouring directions; - linearly combining mode vectors S n:= S 0 0 Ω n N S 1 − 1 Ω n N S 1 0 Ω n N S 1 1 Ω n N ⋯ S N N − 1 Ω n N S N N Ω n N T ∈ R O for said directions Ω j N within each group, resulting in vectors where α n ≥ 0 denotes a weight of S n for said combining; - constructing from said vectors V i a matrix V: = K ⋅ V 1 V 2... V I ∈ R O × I with an arbitrary positive real-valued scaling factor K > O; - calculating from said matrix V a matrix V + which is the Moore-Penrose pseudoinverse of matrix V; - computing for a current section of c ( t) said mezzanine HOA representation w MEZZ ( t) by w MEZZ ( t) = V + · c ( t).
Belt (1, 9, 16) for drive engineering, composed at least of - a belt structure made of two polymeric materials A and B with elastic properties, encompassing an outer layer (2, 10) as belt backing and a substructure (4, 12) with a force-transmission zone (7, 13) and - a tension-member system (3, 11, 17) embedded in the belt structure, where - the first material A comprises from 15 to 50% by weight of at least one fire-retardant additive and has been incorporated in the belt structure wherever there is no requirement for a high level of mechanical properties, and characterized in that - the second material B comprises from 10 to 35% by weight of at least one fire-retardant additive and is used in the belt-structure region which is subject to the highest level of mechanical requirements. - a belt structure made of two polymeric materials A and B with elastic properties, encompassing an outer layer (2, 10) as belt backing and a substructure (4, 12) with a force-transmission zone (7, 13) and - a tension-member system (3, 11, 17) embedded in the belt structure, - the first material A comprises from 15 to 50% by weight of at least one fire-retardant additive and has been incorporated in the belt structure wherever there is no requirement for a high level of mechanical properties, and characterized in that - the second material B comprises from 10 to 35% by weight of at least one fire-retardant additive and is used in the belt-structure region which is subject to the highest level of mechanical requirements.
An automatic switching method in a first device, the method comprising: performing, by the first device together with a second device, a terminal discovery and a service discovery; receiving, from the second device, a connection request message including a persistent connection field and an automatic connection mode; and providing a particular service to the second device based on information included in the connection request message, wherein the persistent connection field includes a service identifier, and the first device is a source device and the second device is a sink device, with the first device communicating with the second device by using short range communication, wherein the persistent connection field is used for initializing a P2P persistent connection, maintaining a service context for a particular service connection, and performing mapping of a persistent P2P group and the service context, and the automatic connection mode is used for automatically connecting the second device to the first device when the particular service is requested. performing, by the first device together with a second device, a terminal discovery and a service discovery; receiving, from the second device, a connection request message including a persistent connection field and an automatic connection mode; and providing a particular service to the second device based on information included in the connection request message, wherein the persistent connection field includes a service identifier, and the first device is a source device and the second device is a sink device, with the first device communicating with the second device by using short range communication, wherein the persistent connection field is used for initializing a P2P persistent connection, maintaining a service context for a particular service connection, and performing mapping of a persistent P2P group and the service context, and the automatic connection mode is used for automatically connecting the second device to the first device when the particular service is requested.
A MIMO transceiver operable for use in a MIMO communications system comprising a receiver, the MIMO transceiver comprising: an antenna array having a plurality of antennas; a scattering structure for receiving the signals from the antennas and located in proximity to the antenna array in the far-field of the antennas; and a controller for controlling the scattering property of the scattering structure, wherein the controller is operable to receive feedback information from the receiver and to control the scattering property of the scattering structure to modify the eigenmodes formed between the transceiver and the receiver, and wherein the controller is operable to use the feedback information for controlling the scattering structure; wherein the scattering structure is operable to scatter the incident signals by at least one of diffraction, reflection or refraction or use of a wave-guide. an antenna array having a plurality of antennas; a scattering structure for receiving the signals from the antennas and located in proximity to the antenna array in the far-field of the antennas; and a controller for controlling the scattering property of the scattering structure, wherein the controller is operable to receive feedback information from the receiver and to control the scattering property of the scattering structure to modify the eigenmodes formed between the transceiver and the receiver, and wherein the controller is operable to use the feedback information for controlling the scattering structure; wherein the scattering structure is operable to scatter the incident signals by at least one of diffraction, reflection or refraction or use of a wave-guide.
A toothed V-belt with (a) a tensile cord, (b) a belt back and (c) a core, which features a toothing with a multitude of teeth, (d) wherein each tooth has (i) a tooth tip, (ii) a tooth base, (iii) a first tooth flank, (iv) a second tooth flank and (v) a tooth base radius of curvature R G in a tooth root, characterised by the fact that (e) for a base height h between a neutral fibre of the tensile cord and the tooth base and an overall belt height H between the tooth tip and a belt back surface of the belt back, the relation 0.40 ≥ h / H ≥ 0.45 applies. (a) a tensile cord, (b) a belt back and (c) a core, which features a toothing with a multitude of teeth, (d) wherein each tooth has (i) a tooth tip, (ii) a tooth base, (iii) a first tooth flank, (iv) a second tooth flank and (v) a tooth base radius of curvature R G in a tooth root, characterised by the fact that (i) a tooth tip, (ii) a tooth base, (iii) a first tooth flank, (iv) a second tooth flank and (v) a tooth base radius of curvature R G in a tooth root, (e) for a base height h between a neutral fibre of the tensile cord and the tooth base and an overall belt height H between the tooth tip and a belt back surface of the belt back, the relation 0.40 ≥ h / H ≥ 0.45 applies.
A peptide consisting of the amino acid sequence of SEQ ID NO: 1, wherein the peptide forms a complex with a Major Histocompatibility Complex Class I molecule.
Moisture-storing substance mixture, comprising a base component of air activated carbon, characterised in that, besides air activated carbon, the substance mixture contains pumice, a fumed silica and expanded clay sand as filler material, and a binder in the form of liquid water glass.
A wall assembly device of coating panels of the type comprising, in combination: a base suitable for being fixed to said panel and a plate suitable for being fixed to said wall, wherein between said base and said plate there are regulation means for regulating the vertical position of said panel, said regulation means consist of a screw housed on the base, said screw reacting directly against the plate, without the intervention of another moving component, characterized in that said base is shaped with two vertical side sections and with a central vertical section, which is on a parallel plane and raised with respect to said side sections, so as to define a space for the housing of said screw, a skirt extending downwardly from said side sections, on a parallel plane, distanced by the presence of a horizontal section.
Cylinder-piston arrangement for a volumetrically acting fluid pump or a fluid motor, with at least one axial expansion hose membrane piston, which defines at least one internal pulsating working space, characterized in that at least one dead space displacer (TK1, TK2a, TK2b, TK2c, VK) is provided, which is in operative connection with the pulsating working space and wherein the dead space displacer (TK1, TK2a, TK2b, TK2c, VK) is designed such that the effective dead space in the working space is reduced and a steepening in the time course of the pressure rise as well as the pressure drop is effectuated compared to a cylinder-piston arrangement without dead space displacer.
A biocompatible hemostatic aerosol comprising polyethylene oxide particles with a viscosity-average molecular weight ranging from 100,000 to 7,000,000 Daltons, a particle size ranging from 0.5μm to 2000μm and a water absorbency capacity ranging from 1 to 500 times of its own weight, wherein the biocompatible hemostatic aerosol is able to form a hydrogel after spraying onto a wound surface.
A method of forming a piezoelectric film, comprising: (a) depositing a first piezoelectric film layer on a surface of a substrate by a first physical vapor deposition, PVD, process; (b) depositing a second piezoelectric film layer, on top of and in contact with the first piezoelectric film layer, by a second physical vapor deposition, PVD, process; (c) reducing a temperature of the substrate after forming the first piezoelectric film layer and before forming the second piezoelectric film layer, wherein the temperature is reduced by performing a process for a first period of time; and additionally performing processes (a), (b) and (c) one or more times, wherein process (c) in the additionally performed processes (a), (b) and (c) is performed for a second period of time, and the second period of time being different than the first period of time; wherein the first PVD process and the second PVD process are sputtering processes. (a) depositing a first piezoelectric film layer on a surface of a substrate by a first physical vapor deposition, PVD, process; (b) depositing a second piezoelectric film layer, on top of and in contact with the first piezoelectric film layer, by a second physical vapor deposition, PVD, process; (c) reducing a temperature of the substrate after forming the first piezoelectric film layer and before forming the second piezoelectric film layer, wherein the temperature is reduced by performing a process for a first period of time; and additionally performing processes (a), (b) and (c) one or more times, wherein process (c) in the additionally performed processes (a), (b) and (c) is performed for a second period of time, and the second period of time being different than the first period of time; wherein the first PVD process and the second PVD process are sputtering processes.
A locking system, for the access- and/or driving authorization in the case of a motor vehicle with a keyless entry/go functionality, having a first device possessing at least two states, which is designed as a control device, such as a control device for unlocking and/or locking the auto doors, the ignition lock, the steering wheel lock, for releasing and/or the blocking the immobilizer, or the engine control unit, and having an associated second device designed as an electronic key, an ID transmitter or a chip card, wherein the two devices (4, 5) for their intended operation possess a transmitter and/or receiver (9, 10) in the form of transponders for low-frequency electromagnetic signals, wherein the transponder possesses an increased range, such that the intended operation of the two devices (4, 5) is made possible, if the second device is located approximately in the positon and/or in the vicinity of the position, in which the respective function of the motor vehicle, which can be effected by the locking system, can be operated by the user, wherein at least one transponder coil (17, 18) and/or antenna is connected with the first device for its intended operation and wherein the transponder coil and/or antenna for the keyless go functionality is arranged in the driver's seat, characterized in that a transponder coil and/or antenna for a keyless entry functionality is arranged in the frame for the side window of the motor vehicle in such a manner that it surrounds the side window.
A method for producing a purified supernatant comprising an antibody, which comprises the steps of: (a) preparing a composition comprising an antibody in such a state that the composition comprises an anionic polymer at pH of 3.5 to 5.0 that is lower than the pI of the antibody; and (b) removing an impurity precipitated by the anionic polymer from the composition, wherein the pI of the antibody is 5.0 to 7.0, and wherein the anionic polymer is polyvinylsulfonic acid, polyacrylic acid, or polystyrenesulfonic acid. (a) preparing a composition comprising an antibody in such a state that the composition comprises an anionic polymer at pH of 3.5 to 5.0 that is lower than the pI of the antibody; and (b) removing an impurity precipitated by the anionic polymer from the composition, wherein the pI of the antibody is 5.0 to 7.0, and wherein the anionic polymer is polyvinylsulfonic acid, polyacrylic acid, or polystyrenesulfonic acid.