mhurhangee/ep-ind-claims huggingface dataset:
A vacuum pump comprising a housing which has at least one groove-like depression (14, 14') and/or which is connected to an element which has at least one groove-like depression, wherein at least one base element (22a, 22b, 22c, 22d) for fastening components to the vacuum pump or for fastening the vacuum pump to other units is coupled to the groove-like depression, characterized in that the groove-like depression extends at least sectionally, in particular completely, in parallel with a longitudinal axis of the housing and has an undercut which cooperates with at least one bulge (26, 24') or a projection of the base element (22a, 22b).
An embedded sprinkler system, comprising: a sprinkler arm; a generator rotor directly mounted and integrated on the sprinkler arm; a generator stator enclosed around the generator rotor; and a printed circuit board housing enclosing the generator stator characterized in that the generator rotor is configured to capture a rotating movement of the sprinkler arm and convert the motion into energy for power generation. a sprinkler arm; a generator rotor directly mounted and integrated on the sprinkler arm; a generator stator enclosed around the generator rotor; and a printed circuit board housing enclosing the generator stator characterized in that the generator rotor is configured to capture a rotating movement of the sprinkler arm and convert the motion into energy for power generation.
A highly heat-resistant, bio-based polycarbonate ester, which comprises: a repeat unit 1 represented by the following Formula 1; a repeat unit 2 represented by the following Formula 2; and a repeat unit 3 represented by the following Formula 3: wherein the highly heat-resistant, bio-based polycarbonate ester has a glass transition temperature of 160 to 240°C and a melt flow index of 5 to 150 g/10 min when measured at 260°C under a load of 2.16 kg, both parameters determined as indicated in the specification. a repeat unit 1 represented by the following Formula 1; a repeat unit 2 represented by the following Formula 2; and a repeat unit 3 represented by the following Formula 3: wherein the highly heat-resistant, bio-based polycarbonate ester has a glass transition temperature of 160 to 240°C and a melt flow index of 5 to 150 g/10 min when measured at 260°C under a load of 2.16 kg, both parameters determined as indicated in the specification.
Drinking behavior monitoring device, comprising a stress level detection sensor which is configured to discriminate between at least a high stress level and a low stress level of a baby during a feeding procedure, stress being indicative of the milk flow rate being too low or too high and wherein the stress level detection sensor is configured to detect one or more physiological parameters, a suction frequency detection sensor configured to detect a suction frequency during a feeding procedure, and an analyzer configured to analyze a drinking behavior of the baby based on the detected stress level and the detected suction frequency, wherein the analyzer is configured to compare the analyzed drinking behavior with a typical drinking behavior and to output a notification based on the analyzed drinking behavior based on whether the flow rate is too low or too high. a stress level detection sensor which is configured to discriminate between at least a high stress level and a low stress level of a baby during a feeding procedure, stress being indicative of the milk flow rate being too low or too high and wherein the stress level detection sensor is configured to detect one or more physiological parameters, a suction frequency detection sensor configured to detect a suction frequency during a feeding procedure, and an analyzer configured to analyze a drinking behavior of the baby based on the detected stress level and the detected suction frequency, wherein the analyzer is configured to compare the analyzed drinking behavior with a typical drinking behavior and to output a notification based on the analyzed drinking behavior based on whether the flow rate is too low or too high.
Enclosure for the operating mechanism of a circuit breaker, this mechanism comprising a main shaft and secondary shafts carrying elements such as levers cams and gears, and an actuating spring, this enclosure comprises: - a base (2; 2') having a generally parallelepiped shape with an open face, this base (2; 2') comprising a bottom wall opposite to its open face, this bottom wall having holes (13, 14, 15) to receive bearings carrying first extremities of the secondary shafts and a through hole receiving the main shaft so as to allow it protrude out of this base (2; 2'); - a supporting part (3; 3') comprising a main wall to be mounted to the open face of the base (2; 2'), the main wall comprising through holes (27, 28, 29, 30) to receive bearings carrying the other extremities of the shafts; characterized in that - the holes (13, 14, 15) to receive bearings carrying first extremities of the secondary shafts are blind holes, and - a cover closes the supporting part (3; 3'). - a base (2; 2') having a generally parallelepiped shape with an open face, this base (2; 2') comprising a bottom wall opposite to its open face, this bottom wall having holes (13, 14, 15) to receive bearings carrying first extremities of the secondary shafts and a through hole receiving the main shaft so as to allow it protrude out of this base (2; 2'); - a supporting part (3; 3') comprising a main wall to be mounted to the open face of the base (2; 2'), the main wall comprising through holes (27, 28, 29, 30) to receive bearings carrying the other extremities of the shafts; characterized in that - the holes (13, 14, 15) to receive bearings carrying first extremities of the secondary shafts are blind holes, and - a cover closes the supporting part (3; 3').
An apparatus for wireless communication at a user equipment, UE, comprising: a memory; and at least one processor coupled to the memory and configured to: receive, from a serving cell, an activation indication for a secondary cell, SCell, based on a first reference signal, the activation indication indicating a transmission of the first reference signal for activating the SCell; identify whether the first reference signal is transmitted as indicated; and (i) activate, upon identifying that the first reference signal is transmitted as indicated, the SCell based on one or more reference signals including the first reference signal or a second reference signal; and (ii) receive, upon identifying that the first reference signal is not transmitted as indicated, the second reference signal from the SCell; and activate, upon identifying that the first reference signal is not transmitted as indicated, the SCell based on the second reference signal received from the SCell. a memory; and at least one processor coupled to the memory and configured to: receive, from a serving cell, an activation indication for a secondary cell, SCell, based on a first reference signal, the activation indication indicating a transmission of the first reference signal for activating the SCell; identify whether the first reference signal is transmitted as indicated; and (i) activate, upon identifying that the first reference signal is transmitted as indicated, the SCell based on one or more reference signals including the first reference signal or a second reference signal; and (ii) receive, upon identifying that the first reference signal is not transmitted as indicated, the second reference signal from the SCell; and activate, upon identifying that the first reference signal is not transmitted as indicated, the SCell based on the second reference signal received from the SCell. receive, from a serving cell, an activation indication for a secondary cell, SCell, based on a first reference signal, the activation indication indicating a transmission of the first reference signal for activating the SCell; identify whether the first reference signal is transmitted as indicated; and (i) activate, upon identifying that the first reference signal is transmitted as indicated, the SCell based on one or more reference signals including the first reference signal or a second reference signal; and (ii) receive, upon identifying that the first reference signal is not transmitted as indicated, the second reference signal from the SCell; and (i) activate, upon identifying that the first reference signal is transmitted as indicated, the SCell based on one or more reference signals including the first reference signal or a second reference signal; and (ii) receive, upon identifying that the first reference signal is not transmitted as indicated, the second reference signal from the SCell; and activate, upon identifying that the first reference signal is not transmitted as indicated, the SCell based on the second reference signal received from the SCell.
Oven for grilling food provided with: - an outer shell, consisting of walls defining an internal volume, comprising a transparent portion belonging to a wall of said oven placed at the front; - at least one door, wherein said volume is subdivided into a zone for heat production by means of heating means and a cooking zone comprising at least one grill on which said food is placed, wherein said at least one door is associated with said at least one grill, which is slidingly supported inside said outer shell by means of guides arranged for allowing the lateral exit of the grill from the oven, and wherein the grill comprises a bulkhead, opposite said door with respect to said grill, arranged for closing said cooking zone when the grill is fully extracted from said oven. - an outer shell, consisting of walls defining an internal volume, comprising a transparent portion belonging to a wall of said oven placed at the front; - at least one door,
A fusion protein, capable of forming a Virus Like Particle, consisting of the incorporation at locations other than N- or C- terminus of one or more amino acid sequences relevant to human or veterinary health, other than an Infectious Bursal Disease Virus sequence, within a Birnaviridae virus VP2 protein, wherein preferably the VP2 protein is the VP2 protein of the Infectious Bursal Disease Virus or a VP2 that shares at least 30% amino acid sequence homology with the VP2 protein of the Infectious Bursal Disease Virus, and wherein the amino acid sequences relevant to human or veterinary health are selected from the list consisting of: vaccine components, antigens and epitopes, targeting sequences, binding sequences, catalytic domains, pharmacology modulators, immunostimulators, toxins and antitoxins.
A rechargeable battery comprising: a conductive case comprising a bottom part and a wall part extending from a periphery of the bottom part; an electrode assembly comprising a positive electrode and a negative electrode, and accommodated in the conductive case; a cap plate opposite to the bottom part and electrically connected to the conductive case; a positive terminal fixed to the cap plate and electrically connected to the cap plate; a negative terminal fixed to the cap plate and electrically insulated from the cap plate; a positive electrode tab extending from the positive electrode and electrically connected to the bottom part; and a negative electrode tab extending from the negative electrode, the negative electrode facing the positive electrode tab and being electrically connected to the negative terminal, wherein a length of the cap plate in a first direction is less than a height of the wall part in a second direction, wherein the cap plate includes an electrolyte injection opening sealed by a pin, and wherein the electrolyte injection opening is covered by the positive electrode terminal. a conductive case comprising a bottom part and a wall part extending from a periphery of the bottom part; an electrode assembly comprising a positive electrode and a negative electrode, and accommodated in the conductive case; a cap plate opposite to the bottom part and electrically connected to the conductive case; a positive terminal fixed to the cap plate and electrically connected to the cap plate; a negative terminal fixed to the cap plate and electrically insulated from the cap plate; a positive electrode tab extending from the positive electrode and electrically connected to the bottom part; and a negative electrode tab extending from the negative electrode, the negative electrode facing the positive electrode tab and being electrically connected to the negative terminal, wherein a length of the cap plate in a first direction is less than a height of the wall part in a second direction, wherein the cap plate includes an electrolyte injection opening sealed by a pin, and wherein the electrolyte injection opening is covered by the positive electrode terminal.
A flight control system for controlling the flight of an aircraft, the system comprising: an inner loop configured to stabilize the flight control system, the inner loop having: a control law; wherein the control law is separated into flow paths for a longitudinal component and a lateral component; and characterised in that the longitudinal component includes a longitudinal motion input that passes to a longitudinal linear quadratic regulator and a first gain scheduling block, the lateral component includes a lateral motion input that passes to a lateral linear quadratic regulator and a second gain scheduling block; and wherein an output from the first gain scheduling block and an output from the second gain scheduling block are regrouped; an outer loop utilizing a summary gain design to shorten a gain selection; and a steady state trim loop configured to automatically catch the trim flight of the aircraft. an inner loop configured to stabilize the flight control system, the inner loop having: a control law; wherein the control law is separated into flow paths for a longitudinal component and a lateral component; and characterised in that the longitudinal component includes a longitudinal motion input that passes to a longitudinal linear quadratic regulator and a first gain scheduling block, the lateral component includes a lateral motion input that passes to a lateral linear quadratic regulator and a second gain scheduling block; and wherein an output from the first gain scheduling block and an output from the second gain scheduling block are regrouped; a control law; wherein the control law is separated into flow paths for a longitudinal component and a lateral component; and characterised in that the longitudinal component includes a longitudinal motion input that passes to a longitudinal linear quadratic regulator and a first gain scheduling block, the lateral component includes a lateral motion input that passes to a lateral linear quadratic regulator and a second gain scheduling block; and wherein an output from the first gain scheduling block and an output from the second gain scheduling block are regrouped; an outer loop utilizing a summary gain design to shorten a gain selection; and a steady state trim loop configured to automatically catch the trim flight of the aircraft.
A method of determining whether process water is present in a circulation pump of an appliance for washing and rinsing goods, even if determination of a water level in a compartment of the appliance is not required, comprising: measuring a minimum value of a property representing load of the circulation pump at a predetermined first speed (v 1); measuring a maximum value of a property representing load of the circulation pump at a predetermined second speed (v 2), the second speed being higher than the first speed; determining a relation between said minimum value and said maximum value; and determining, from said relation, whether process water is present in the circulation pump. measuring a minimum value of a property representing load of the circulation pump at a predetermined first speed (v 1); measuring a maximum value of a property representing load of the circulation pump at a predetermined second speed (v 2), the second speed being higher than the first speed; determining a relation between said minimum value and said maximum value; and determining, from said relation, whether process water is present in the circulation pump.
A process for foaming a polyolefin composition, the process comprising the steps of: providing a fluororesin nucleating agent comprising 80% or more of agglomerates of 5 microns or more in size, the agglomerates comprising submicron particles, batch mixing the fluororesin nucleating agent of with a polyolefin to produce a mixture; reducing the size of the agglomerates of the mixture of to produce a fluororesin nucleating agent comprising 80% or more of particles or agglomerates of less than 1 micron in size, uniformly dispersing the fluororesin nucleating agent of throughout the polyolefin to produce a foamable composition, and foaming the foamable composition.
A process for producing an olefin polymer comprising a step of polymerizing at least one olefin selected from ethylene and α-olefins having 4 to 30 carbon atoms, and propylene as needed, in the presence of an olefin polymerization catalyst comprising at least one transition metal compound selected from transition metal compounds represented by the general formula and enantiomers thereof, the olefin polymer including constituent units derived from the at least one selected from ethylene and α-olefins having 4 to 30 carbon atoms in a total amount between more than 50 mol% and not more than 100 mol%, and constituent units derived from propylene in an amount between 0 mol% and less than 50 mol% (wherein the content of the constituent units derived from ethylene and α-olefins having 4 to 30 carbon atoms and the content of the constituent units derived from propylene total 100 mol%), [in the formula, R 1, R 3, R 5, R 6, R 7, R 8, R 9, R 10, R 11, R 12, R 13, R 14, R 15 and R 16 are each independently a hydrogen atom, a hydrocarbon group, a hetero atom-containing hydrocarbon group, or a silicon-containing group; R 2 is a hydrocarbon group, a hetero atom-containing hydrocarbon group, or a silicon-containing group; R 4 is a hydrogen atom; any two substituents of the substituents R 1 to R 16 except R 4 may be bonded to each other to form a ring; M is a transition metal of Group IV; Q is a halogen atom, a hydrocarbon group, an anionic ligand, or a neutral ligand coordinatable with a lone electron pair; j is an integer of 1 to 4; and when j is an integer of 2 or greater, Qs may be the same or different from one another].
A combination of an endoscope and an applicator for attaching an optical element to an optical port disposed on a distal end of the endoscope, said applicator having a proximal side and an opposing distal side, the applicator comprising: a base having an opening and being configured to support the optical element in the opening; one or more alignment members (512a, 512b, 514) extending from the proximal side of the base, the one or more alignment members being configured to engage with a corresponding registration feature disposed on the distal end of the endoscope; and an actuatable element disposed on the distal side of the base and adapted to transmit a force to the optical element, characterized in that the optical element is releasable from the applicator in a proximal direction by actuating the actuatable element. a base having an opening and being configured to support the optical element in the opening; one or more alignment members (512a, 512b, 514) extending from the proximal side of the base, the one or more alignment members being configured to engage with a corresponding registration feature disposed on the distal end of the endoscope; and an actuatable element disposed on the distal side of the base and adapted to transmit a force to the optical element, characterized in that the optical element is releasable from the applicator in a proximal direction by actuating the actuatable element.
An adjustable compression device comprising: an elongate rigid band provided to extend around a portion of the circumference of a penis, the band including first and second side portions (18, 20) connecting by an intermediate portion; and an engagement member secured between the first and second side portions (18, 20) such that the engagement member is rotatable about a rotational axis extending between the side portions (18, 20), and the engagement member having a cylindrical side wall being off-centred relative to said rotational axis such that an area defined between the engagement member and the band can be increased or decreased by rotation of the engagement member thereby adjusting pressure applied to the penis, characterised in that an outer surface of the side wall includes an arcuate groove extending around the periphery thereof to follow the curvature of a surface of the penis. an elongate rigid band provided to extend around a portion of the circumference of a penis, the band including first and second side portions (18, 20) connecting by an intermediate portion; and an engagement member secured between the first and second side portions (18, 20) such that the engagement member is rotatable about a rotational axis extending between the side portions (18, 20), and the engagement member having a cylindrical side wall being off-centred relative to said rotational axis such that an area defined between the engagement member and the band can be increased or decreased by rotation of the engagement member thereby adjusting pressure applied to the penis, characterised in that an outer surface of the side wall includes an arcuate groove extending around the periphery thereof to follow the curvature of a surface of the penis.
A stretched film which is stretched in the machine direction at a stretch ratio of 2-6 and comprises a fluoropolymer having a melting point of ≥ 180°C and has - a thickness of 1-100 μm, - a relative permittivity of ≥ 8 at a frequency of 1 kHz at 30°C, and - a rate of change of -8 to +8%, calculated from a relative permittivity A at a frequency of 1 kHz at 30°C and a relative permittivity B at a frequency of 1 kHz at 150°C according to the formula: Rate of change % = B − A / A × 100. - a thickness of 1-100 μm, - a relative permittivity of ≥ 8 at a frequency of 1 kHz at 30°C, and - a rate of change of -8 to +8%, calculated from a relative permittivity A at a frequency of 1 kHz at 30°C and a relative permittivity B at a frequency of 1 kHz at 150°C according to the formula: Rate of change % = B − A / A × 100.