mhurhangee/ep-ind-claims huggingface dataset:
A mount for an image capturing device comprising a fixed frame (10, 12), and a support frame (12, 14) arranged to support an image capturing device, wherein the support frame is attached to the fixed frame by a pivot joint defining a pivot axis (18, 16) for rotating the support frame relative to the fixed frame, and an adjustment joint (20, 30, 60) for adjusting a pivot position for the support frame comprising a first element (22, 32, 42, 52) arranged in one of the support frame and the fixed frame so as to be retrofittable thereto, and forming a first contact surface, and a second element (24, 34, 44, 54, 64) arranged in the other of the support frame and the fixed frame and forming a second contact surface, wherein the first element and the second element are arranged to abut at the first and second contact surfaces, wherein the first element is further arranged to be moved along a linear axis (26, 36) that traverses the pivot axis and that extends trough a plane of the contact surfaces, wherein at least one of the contact surfaces is curved, and wherein the first and second elements are arranged to be magnetically connected during abutment, thereby allowing a pivot position of the support frame relative to the fixed frame to be adjusted by a linear movement of the first element. a pivot joint defining a pivot axis (18, 16) for rotating the support frame relative to the fixed frame, and an adjustment joint (20, 30, 60) for adjusting a pivot position for the support frame comprising a first element (22, 32, 42, 52) arranged in one of the support frame and the fixed frame so as to be retrofittable thereto, and forming a first contact surface, and a second element (24, 34, 44, 54, 64) arranged in the other of the support frame and the fixed frame and forming a second contact surface, a first element (22, 32, 42, 52) arranged in one of the support frame and the fixed frame so as to be retrofittable thereto, and forming a first contact surface, and a second element (24, 34, 44, 54, 64) arranged in the other of the support frame and the fixed frame and forming a second contact surface,
An ultra-low temperature freezer comprising: an insulated case defining a storage compartment having an opening in an upper face; and an insulated door configured to be able to open and close the opening so that the storage compartment can be seen from the front face side of the insulated case, characterized in that the front face of the insulated case is having a thickness smaller than thicknesses (T3,T4,T2) of both side faces (2C,2D) and a back face of the insulated case. an insulated case defining a storage compartment having an opening in an upper face; and an insulated door configured to be able to open and close the opening so that the storage compartment can be seen from the front face side of the insulated case, characterized in that the front face of the insulated case is having a thickness smaller than thicknesses (T3,T4,T2) of both side faces (2C,2D) and a back face of the insulated case.
A laminated chip device comprising: a first laminate including a plurality of conductor patterns (111, 112, 121 - 128) respectively provided on a plurality of sheets (11 - 20), the conductor patterns being vertically connected to each other through a conductive via (211 - 214) formed to penetrate at least a sheet; and a second laminate disposed over or below the first laminate and including a plurality of internal electrode patterns (311, 312, 320, 330) provided on a plurality of the sheets (31 - 33), wherein the via (211 - 214) penetrating the sheet is not formed in the plurality of sheets of the second laminate, and the internal electrode patterns (320, 330) are provided with a non-conductive region (411 - 414) in at least a portion of an area overlapping the via, wherein the non-conductive region (411 - 414) is formed by eliminating at least a portion of the internal electrode pattern to expose the sheet. a first laminate including a plurality of conductor patterns (111, 112, 121 - 128) respectively provided on a plurality of sheets (11 - 20), the conductor patterns being vertically connected to each other through a conductive via (211 - 214) formed to penetrate at least a sheet; and a second laminate disposed over or below the first laminate and including a plurality of internal electrode patterns (311, 312, 320, 330) provided on a plurality of the sheets (31 - 33), wherein the via (211 - 214) penetrating the sheet is not formed in the plurality of sheets of the second laminate, and the internal electrode patterns (320, 330) are provided with a non-conductive region (411 - 414) in at least a portion of an area overlapping the via, wherein the non-conductive region (411 - 414) is formed by eliminating at least a portion of the internal electrode pattern to expose the sheet.
A method for selecting a variant of a reference antibody variable domain, wherein the reference antibody variable domain has at least one of i) an unpaired Cys-residue in the variable domain or the HVR, ii) a glycosylation site, or iii) a post-translationally modified Asp, Asn or Met amino acid residue, the method comprising the following steps: - aligning antibody variable domain encoding nucleic acids produced by sequencing nucleic acids from a multitude of B-cell clones each producing an antibody specifically binding to the same target as the reference antibody with the sequence of the reference antibody being the template sequence; and - selecting a sequence that has the highest similarity to the reference sequence wherein at least one of the at least one amino acid residue of i) an unpaired Cys-residue in the variable domain or the HVR, ii) a glycosylation site, or iii) a post-translationally modified Asp, Asn or Met amino acid residue of the reference antibody variable domain is replaced by/changed to an amino acid residue that is not post-translationally modified, wherein the B-cells are obtained from the same immunization campaign as the reference antibody, wherein the B-cells have been enriched for antigen-specific antibody expressing B-cells. - aligning antibody variable domain encoding nucleic acids produced by sequencing nucleic acids from a multitude of B-cell clones each producing an antibody specifically binding to the same target as the reference antibody with the sequence of the reference antibody being the template sequence; and - selecting a sequence that has the highest similarity to the reference sequence wherein at least one of the at least one amino acid residue of i) an unpaired Cys-residue in the variable domain or the HVR, ii) a glycosylation site, or iii) a post-translationally modified Asp, Asn or Met amino acid residue of the reference antibody variable domain is replaced by/changed to an amino acid residue that is not post-translationally modified,
A heat pump system comprising: a heat-source-side refrigerant circuit wherein a plurality of usage units (5a, 5b) are connected to a heat source unit via refrigerant communication tubes (12, 13, 14), the heat source unit having a heat-source-side heat exchanger (26a, 26b) and a heat-source-side compressor for compressing a heat-source-side refrigerant, and the usage units (5a, 5b) having first usage-side heat exchangers (51a, 51b) and second usage-side heat exchangers (151a, 151b) that function as an evaporator of the heat-source-side refrigerant; and a controller capable of carrying out a heating operation for heating a medium by heat radiation of the heat-source-side refrigerant in the first usage-side heat exchangers, and configured to cause the heat-source-side heat exchanger to function as an evaporator of the heat-source-side refrigerant or as a radiator of the heat-source-side refrigerant in accordance with an overall heat load of the plurality of first and second usage-side heat exchangers in a state in which the heating operation, or a cooling operation for cooling the aqueous medium by evaporation of the heat-source-side refrigerant in the second usage-side heat exchangers, has been set for each of the usage units; and to carry out an operation for balancing the overall heat load of the plurality of first and second usage-side heat exchangers, characterized in that the medium is an aqueous medium, and the usage units (5a, 5b) are each capable of simultaneously carrying out the heating operation and the cooling operation. a heat-source-side refrigerant circuit wherein a plurality of usage units (5a, 5b) are connected to a heat source unit via refrigerant communication tubes (12, 13, 14), the heat source unit having a heat-source-side heat exchanger (26a, 26b) and a heat-source-side compressor for compressing a heat-source-side refrigerant, and the usage units (5a, 5b) having first usage-side heat exchangers (51a, 51b) and second usage-side heat exchangers (151a, 151b) that function as an evaporator of the heat-source-side refrigerant; and a controller capable of carrying out a heating operation for heating a medium by heat radiation of the heat-source-side refrigerant in the first usage-side heat exchangers, and configured to cause the heat-source-side heat exchanger to function as an evaporator of the heat-source-side refrigerant or as a radiator of the heat-source-side refrigerant in accordance with an overall heat load of the plurality of first and second usage-side heat exchangers in a state in which the heating operation, or a cooling operation for cooling the aqueous medium by evaporation of the heat-source-side refrigerant in the second usage-side heat exchangers, has been set for each of the usage units; and to carry out an operation for balancing the overall heat load of the plurality of first and second usage-side heat exchangers, characterized in that the medium is an aqueous medium, and the usage units (5a, 5b) are each capable of simultaneously carrying out the heating operation and the cooling operation.
Valve unit for modulating pressure in a compressed air braking system, with a brake pressure input, a brake pressure output and a purge output, and with an inlet valve configured as a diaphragm valve, an outlet valve configured as a diaphragm valve and with, for each diaphragm valve (6, 7), respective precontrol valves (8, 9) which are each configured as a 3/2-way solenoid valve and are arranged in an elongate valve housing that is divided by a division plane which is largely horizontal in the installation position into a base housing and a housing cover, wherein the brake pressure input and the brake pressure output and the purge output are arranged in the base housing, the diaphragm valves (6, 7) are arranged behind each other in the longitudinal direction in the base housing between the brake pressure input and the brake pressure output, with parallel actuation axes (14, 15) and with an arrangement of the diaphragms (16, 17) in a common diaphragm plane largely corresponding to the division plane and clamped between the base housing and the housing cover, and the precontrol valves (8, 9) are arranged in the housing cover, characterized in that the valve unit at the purge output is provided with a silencer which comprises a largely cylindrical silencer housing with an inlet opening, a calming chamber arranged radially on the inside, a large outlet opening and a silencer insert (80.1, 80.2) arranged upstream of the outlet opening inside the silencer housing and made of an air-permeable and sound-deadening material, in that the silencer is attached to the base housing with base walls (83, 84) oriented parallel to the division plane between the brake pressure input and the brake pressure output, and in that the silencer housing is fixed to the valve housing by a screw connection (95, 96, 97) of a flat housing lid of the silencer housing to the base housing.
Precipitated silica characterised by: - an amount of at least one element M selected from the group consisting of B, Al, Ga and mixtures thereof in the range from 0.5 to 30.0 mol%; - an infrared absorption spectrum having at least one peak between 1538 and 1559 cm -1 and at least one peak between 1612 and 1635 cm -1, said spectrum having been measured after chemisorption with pyridine to saturation followed by treatment under vacuum at 25°C, wherein the area under the peak between 1538 and 1559 cm -1 is at least 0.05 cm -1, the area under the peak between 1612 and 1635 cm -1 is at least 0.04 cm -1 and the ratio (area under the peak between 1538 and 1559 cm -1)/(area under the peak between 1612 and 1635 cm -1) is at least 1.20. - an amount of at least one element M selected from the group consisting of B, Al, Ga and mixtures thereof in the range from 0.5 to 30.0 mol%; - an infrared absorption spectrum having at least one peak between 1538 and 1559 cm -1 and at least one peak between 1612 and 1635 cm -1, said spectrum having been measured after chemisorption with pyridine to saturation followed by treatment under vacuum at 25°C, wherein the area under the peak between 1538 and 1559 cm -1 is at least 0.05 cm -1, the area under the peak between 1612 and 1635 cm -1 is at least 0.04 cm -1 and the ratio (area under the peak between 1538 and 1559 cm -1)/(area under the peak between 1612 and 1635 cm -1) is at least 1.20.
A method for stabilizing donepezil or a pharmaceutically acceptable salt thereof, comprising adding a high molecular weight acidic substance selected from the group consisting of methacrylic acid-ethyl acrylate copolymer, methacrylic acid-methyl methacrylate copolymer and hydroxypropyl methylcellulose acetate succinate into a pharmaceutical composition comprising donepezil or a pharmaceutically acceptable salt thereof and a high molecular weight basic substance selected from the group consisting of ethylcellulose, ethyl acrylate-methyl methacrylate copolymer and polyethylene oxide.
An illumination source comprising: an LED light source with a central axis; a first reflector having a first reflecting surface with a first conic or conic-like shape, the first reflector passing directly in front of a light emitted along the central axis of the LED light source; a second reflector having a second reflecting surface with a second conic or conic-like shape, the second reflector not passing directly in front of the light emitted along the central axis of the LED; and an opening between the first reflector and the second reflector that allows light from the LED light source to directly illuminate a region of a target area that is not illuminated by the first reflector and the second reflector, characterized in that a portion of the light reflected off the first reflector is redirected from a positive angle between 0° to 90° to a dominantly negative angle between - 90° to 0°, wherein 0° corresponds to the central axis of the LED light source. an LED light source with a central axis; a first reflector having a first reflecting surface with a first conic or conic-like shape, the first reflector passing directly in front of a light emitted along the central axis of the LED light source; a second reflector having a second reflecting surface with a second conic or conic-like shape, the second reflector not passing directly in front of the light emitted along the central axis of the LED; and an opening between the first reflector and the second reflector that allows light from the LED light source to directly illuminate a region of a target area that is not illuminated by the first reflector and the second reflector, characterized in that a portion of the light reflected off the first reflector is redirected from a positive angle between 0° to 90° to a dominantly negative angle between - 90° to 0°, wherein 0° corresponds to the central axis of the LED light source.
A wireless communication device comprising - a digital circuit, arranged for performing digital processing in a signal path, - an analog circuit, arranged for performing analog processing in said signal path, - a control circuit, arranged for receiving control signals as input and for providing output control signals for said analog circuit, said control circuit being adapted for determining characteristics of a signal in said signal path, said control circuit comprising a digital subcircuit, arranged for performing computations on said control signals and generating decision signals, said digital subcircuit comprising a memory with a set of predetermined configurations determined via a constrained multiobjective optimization, said constraints partially being defined in terms of required characteristics of the transmit signal or the receive signal, and being configured for selecting based on said determined characteristics a configuration of said analog circuit; and an analog subcircuit comprising driving circuitry for said analog circuit, said driving circuitry arranged for being steered by said decision signals. - a digital circuit, arranged for performing digital processing in a signal path, - an analog circuit, arranged for performing analog processing in said signal path, - a control circuit, arranged for receiving control signals as input and for providing output control signals for said analog circuit, said control circuit being adapted for determining characteristics of a signal in said signal path, said control circuit comprising a digital subcircuit, arranged for performing computations on said control signals and generating decision signals, said digital subcircuit comprising a memory with a set of predetermined configurations determined via a constrained multiobjective optimization, said constraints partially being defined in terms of required characteristics of the transmit signal or the receive signal, and being configured for selecting based on said determined characteristics a configuration of said analog circuit; and an analog subcircuit comprising driving circuitry for said analog circuit, said driving circuitry arranged for being steered by said decision signals. a digital subcircuit, arranged for performing computations on said control signals and generating decision signals, said digital subcircuit comprising a memory with a set of predetermined configurations determined via a constrained multiobjective optimization, said constraints partially being defined in terms of required characteristics of the transmit signal or the receive signal, and being configured for selecting based on said determined characteristics a configuration of said analog circuit; and an analog subcircuit comprising driving circuitry for said analog circuit, said driving circuitry arranged for being steered by said decision signals.
A hemostatic dressing which comprises: (i) a first fibrinogen layer; (ii) a thrombin layer adjacent to said first fibrinogen layer; and (iii) a second fibrinogen layer adjacent to said thrombin layer, wherein the thrombin layer is noncoextensive with the first fibrinogen layer and/or the second fibrinogen layer, and wherein said first fibrinogen layer and said second fibrinogen layer are affixed to one another. (i) a first fibrinogen layer; (ii) a thrombin layer adjacent to said first fibrinogen layer; and (iii) a second fibrinogen layer adjacent to said thrombin layer, wherein the thrombin layer is noncoextensive with the first fibrinogen layer and/or the second fibrinogen layer, and wherein said first fibrinogen layer and said second fibrinogen layer are affixed to one another.
Truss girder for a roof timbering of a weather protection roof, whereby an assembly rail accessible by an installation worker is fitted to the truss girder, characterised in that the assembly rail extends in a longitudinal direction of the truss girder, the assembly rail flanks the truss girder in a longitudinal direction at the side, whereby the support on which surface elements lie extends substantially vertical to the level defined by the truss girder whereby the supports are designed as cantilevers projecting substantially freely from the truss girder level, each connected with a support structure anchored to framework members (24, 28, 36) of the truss girder, which are designed in such a way that they can transfer transverse forces and torque loads originating from the assembly rail to the truss girder and whereby each of the support structures comprises a post which extends along the framework level whereby the foot end of the post is formed by a kind of claw or as a two-pronged fork, on which the post stands at the side of a vertical framework member on the lower strap of a framework in that the foot-side claw straddles the lower strap, whereby the post at the opposite end comprises anchors lying on the framework level on both sides, with which the support construction is anchored to adjacent vertical or diagonal framework members (24, 36).
A dynamic probe for probing a dynamic data signal comprising a switching unit configured to provide at least two different input impedances, wherein the switching unit is configured to select a first input impedance in a first mode and a second input impedance in a second mode, wherein the switching unit is configured to change the mode automatically, the switching unit being configured to be operated dynamically based on an event in the data signal processed characterized in that the switching unit is configured such that a first amplifier is switched on in the first mode and a second amplifier is switched on in the second mode, wherein the first amplifier is a high voltage, low frequency amplifier and the second amplifier is a low voltage, high frequency amplifier.
A probe for use in a sensor system for measuring concentration of chlorine in a fluid based on electric current flowing between a pair of electrodes (240, 250), the probe comprising: a probe body having a hollow portion in fluid communication with a first flow passage of the sensor system a first end proximal to the first flow passage, and a second end distal to the first end; and a plurality of electrodes (240, 250) positioned in the hollow portion proximal to the second end and contacting the fluid in the hollow portion, the electrodes (240, 250) adapted to generate a current in response to the concentration of chlorine present in the fluid; and a nozzle in fluid communication with the hollow portion of the probe body, the nozzle being coaxial with the hollow portion of the probe body thereby defining an annulus between the nozzle and the probe body, the nozzle receiving fluid from the hollow portion, the nozzle being shaped to direct the fluid from the hollow portion toward the second end, a portion of an outer surface of the probe body having a plurality of flutes defined therein, the flutes being shaped and oriented to direct fluid from the second end to flow along the flutes into the annulus between the nozzle and the probe body. a probe body having a hollow portion in fluid communication with a first flow passage of the sensor system a first end proximal to the first flow passage, and a second end distal to the first end; and a plurality of electrodes (240, 250) positioned in the hollow portion proximal to the second end and contacting the fluid in the hollow portion, the electrodes (240, 250) adapted to generate a current in response to the concentration of chlorine present in the fluid; and a nozzle in fluid communication with the hollow portion of the probe body, the nozzle being coaxial with the hollow portion of the probe body thereby defining an annulus between the nozzle and the probe body, the nozzle receiving fluid from the hollow portion, the nozzle being shaped to direct the fluid from the hollow portion toward the second end, a portion of an outer surface of the probe body having a plurality of flutes defined therein, the flutes being shaped and oriented to direct fluid from the second end to flow along the flutes into the annulus between the nozzle and the probe body.